I am proud of myself - Ali Baba version

Only 2 links to prove it.

Link 1 The science behind the romantic kiss

Link 2 Why creative people need Lucid Dreaming as a hobby

Enjoy!

Analogies between intelligence and happiness

I just connected some dots between my recent 'study of happiness' and intelligence. Similarities that i try to understand, because i think it is something there, and this is what i found. The genetic factors underlie about 50-60% percent of the difference in intelligence among individuals. The genetics factors that determine the set point for happiness are responsible for 50% of our happiness, more or less. We are all born with a determined set point for happiness, as we are all born with a determined set point for our IQ level (+/- 5%). Circumstances or environment are responsible for about 40% of our intelligence (not yet determined how much is given by the external factors and how much by the internal factors - training and learning). 10-15% of our happiness is influenced by circumstantial factors, while about 40% is the result on intentional activity. Out of this, cognitive and behavioral give what seems to be a temporary boost, that is longer than the circumstantial temporary boost, probably due to the Hedonic Adaptation, faster in circumstantial cases than in intentional activity. Volitional activity is the one intentional activity that seems to create a more permanent boost, and given the apparently transferable knowledge between increasing happiness and increasing intelligence increase and decrease (even if infinitesimal as value), i will try to explore this hypothesis even more. Until now everyone was thinking that the set point for happiness and the set point for intelligence are usually immovable, and every boost is just temporary, because we tend to come back to the equilibrium value, but some recent researches (2001-2005) found that in some cases the increases are sustainable and the boost seems to be almost permanent.  This is the result of more than 35 studies and researches combined in only few phrases, if you understand what i mean, you know what to do next.

I would appreciate if you want to share with me, any help is well received.
Good luck!
G.

Super Humans - Taylor Wilson

   Taylor Wilson (born May 7, 1994) is an American nuclear physicist and science advocate. In 2008, at age 14, he became the youngest person to produce nuclear fusion, using a fusor. Taylor Wilson was born in 1994 in Texarkana, Arkansas to Kenneth and Tiffany Wilson. Kenneth is the owner of a Coca-Cola bottling plant, and Tiffany was a Yoga instructor. Wilson was initially interested in rocketry and space science, before entering the field of nuclear science at age 10. He had a lot of support from his parents. During high school Wilson attended both the Davidson Academy of Nevada and the University of Nevada, Reno where he was given a laboratory to conduct his fusion research. He resides in Reno, Nevada. In June 2012, Wilson was awarded a Thiel Fellowship. The two-year $100,000.00 fellowship requires recipients to forgo college for the duration of the fellowship. In 2008, Wilson achieved nuclear fusion using an Inertial Electrostatic Confinement device which was a variation of the fusor, invented by Philo T. Farnsworth in 1964. He utilized the flux of neutrons from a deuterium-deuterium fusion reaction to conduct nuclear experiments, as well as studied novel fusion fuels inside the IEC device. In March 2012, Wilson spoke at a TED conference regarding the building of his fusion reactor. Along with the IEC reactors, Wilson has conducted fusion research using Dense Plasma Focus devices he also constructed and developed nuclear diagnostics for basic fusion research. In May 2010, Wilson entered the Intel International Science and Engineering Fair in San Jose, California, and won several awards for his project titled "Fission Vision: The Detection of Prompt and Delayed Induced Fission Gamma Radiation, and the Application to the Detection of Proliferated Nuclear Materials". In May 2011, Wilson entered his radiation detector in the Intel International Science and Engineering Fair in Los Angeles, California, against a field of 1,500 competitors and won a US$50,000 award. The project, “Countering Nuclear Terrorism: Novel Active and Passive Techniques for Detecting Nuclear Threats”, won the First Place Award in the Physics and Astronomy Category, Best of Category Award, and the Intel Young Scientist Award. Wilson stated he hopes to test and rapidly field the devices to US ports for counterterrorism purposes. The U.S. Department of Homeland Security and U.S. Department of Energy offered federal funding to Wilson concerning research Wilson has conducted in building inexpensive Cherenkov radiation detectors; Wilson has declined on an interim basis due to pending patent issues. Traditional Cherenkov detectors usually cost hundreds of thousands of dollars (USD), while Wilson invented a working detector that cost a few hundred dollars.

Super Humans - Mohammad Abdus Salam

   Mohammad Abdus Salam (Punjabi, Urdu: محمد عبد السلام‎; pronounced [əbd̪ʊs səlɑm]; 29 January 1926 – 21 November 1996), was a Pakistani theoretical physicist. Salam, a major figure in 20th century theoretical physics, shared the 1979 Nobel Prize in Physics with Sheldon Glashow and Steven Weinberg for his contribution to the landmark electroweak unification. He was the first (and until Malala Yousufzai the only) Pakistani to receive a Nobel Prize, the first Muslim to win a Nobel prize in science and the second Muslim Nobel Laureate (after Anwar Sadat of Egypt).

   Salam was a top level science advisor to the Government of Pakistan from 1960 to 1974, a position from which he played a major and influential role in the development of the country's science infrastructure. Salam was responsible not only for contributing to major developments in theoretical and particle physics, but also for promoting the broadening and deepening of high calibre scientific research in his country. He was the founding director of the Space and Upper Atmosphere Research Commission (SUPARCO), and responsible for the establishment of the Theoretical Physics Group (TPG) in the Pakistan Atomic Energy Commission (PAEC). As Science Advisor, Salam played an integral role in Pakistan's development of the peaceful use of nuclear energy, and may have contributed as well to development of atomic bomb project of Pakistan in 1972; for this, he is viewed as the "scientific father" of this programme. In 1974, Abdus Salam departed from his country, in protest, after the Pakistan Parliament passed a controversial parliamentary bill declaring the Ahmadiyya Community as not-Islamic. In 1998, following the country's nuclear tests, the Government of Pakistan issued a commemorative stamp, as a part of "Scientists of Pakistan", to honour the services of Salam. Salam's major and notable achievements include the Pati–Salam model, magnetic photon, vector meson, Grand Unified Theory, work on supersymmetry and, most importantly, electroweak theory, for which he was awarded the most prestigious award in physics – the Nobel Prize. Salam made a major contribution in quantum field theory and in the advancement of Mathematics at Imperial College London. With his student, Riazuddin, Salam made important contributions to the modern theory on neutrinos, neutron stars and black holes, as well as the work on modernising the quantum mechanics and quantum field theory. As a teacher and science promoter, Salam is remembered as a founder and scientific father of mathematical and theoretical physics in Pakistan during his term as the chief scientific advisor to the president. Salam heavily contributed to the rise of Pakistani physics to the physics community in the world. Even until shortly before his death, Salam continued to contribute to physics and tirelessly to advocate for the development of science in Third-World countries.

   Abdus Salam was born to Chaudhry Muhammad Hussain and Hajira Hussain, into an Ahmadi Muslim Punjabi family. Chaudhry Muhammad Hussain was Jat and Hajirah a Kakkezai. His own grandfather, Gul Muhammad, was a religious scholar apart from being a physician. Salam's father was an education officer in the Department of Education of Punjab State in a poor farming district. Salam  established very earlya reputation throughout the Punjab and later at the University of Cambridge for outstanding brilliance and academic achievement. At age 14, Salam scored the highest marks ever recorded for the matriculation (entrance) examination at the Punjab University. He won a full scholarship to the Government College University of Lahore, Punjab State. Salam was a versatile scholar, interested in Urdu and English literature in which he excelled. But he soon picked up Mathematics as his subject of concentration. Salam's mentor and tutors wanted him to become an English teacher, but Salam decided to stick with Mathematics As a fourth-year student there, he published his work on Srinivasa Ramanujan's problems in mathematics, and took his B.A. in Mathematics in 1944. His father wanted him to join Indian Civil Service. In those days, the Indian Civil Service was the highest aspiration for young university graduates and civil servants occupied a respected place in the civil society. Respecting his father's wish, Salam tried for the Indian Railways but did not qualify for the service as he failed the medical optical tests because he had worn spectacles since an early age. The results further concluded that Salam failed a mechanical test required by the railway engineers to gain a commission in Indian Railways, and moreover that Salam was too young to compete for the job. Therefore, Indian Railways rejected Abdus Salam's job application. While in Lahore, Abdus Salam went on to attend the graduate school of Government College University. He received his MA in Mathematics from the Government College University in 1946. That same year, he was awarded a scholarship to St John's College, Cambridge, where he completed a BA degree with Double First-Class Honours in Mathematics and Physics in 1949. In 1950, he received the Smith's Prize from Cambridge University for the most outstanding pre-doctoral contribution to Physics. After finishing his degrees, Fred Hoyle advised Salam to spend another year in the Cavendish Laboratory to do research in experimental physics, but Salam had no patience for carrying out long experiments in the laboratory. Salam returned to Jhang, Punjab (now part of Pakistan) and renewed his scholarship and returned to the United Kingdom to do his doctorate. He obtained a PhD degree in Theoretical Physics from the Cavendish Laboratory at Cambridge. His doctoral thesis contained comprehensive and fundamental work in quantum electrodynamics. By the time it was published in 1951, it had already gained him an international reputation and the Adams Prize. During his doctoral studies, his mentors challenged him to solve within one year an intractable problem which had defied such great minds as Dirac and Feynman. Within six months, Salam had found a solution for the renormalisation of meson theory. As he proposed the solution at the Cavendish Laboratory, Salam had attracted the attention of Bethe, Oppenheimer and Dirac.

Super Humans - Mikaela Irene Fudolig

Mikaela Irene Fudolig (born 1991 or 1992) is known for being a Filipina former child prodigy. Fudolig graduated at 16 years old as a summa cum laude with a B.S. in Physics with a general weighted average of 1.099 from the University of the Philippines. She has also received a degree from the National Institute of Physics. She was only 11 when she entered college under an experimental program to test the impact of gifted children entering a university on their emotional and social development. Fudolig studied in Quezon City Science High School before being pulled into the test program. She is currently a PhD student and professor at the same university—with interest in econophysics, mathematical modeling of behavior in systems, and biological systems. She actively encourages her graduates and other university students in the Philippines to stay and rebuild the country as “brave pioneers” instead of leaving for foreign shores.

Super Humans - Enrico Fermi

   Enrico Fermi (Italian: [enˈriko ˈfermi]; 29 September 1901 – 28 November 1954) was an Italian physicist, who created the world's first nuclear reactor, the Chicago Pile-1. He has been called the "architect of the nuclear age", and the "architect of the atomic bomb". He was one of the few physicists to excel both theoretically and experimentally. Fermi held several patents related to the use of nuclear power, and was awarded the 1938 Nobel Prize in Physics for his work on induced radioactivity by neutron bombardment and the discovery of transuranic elements. He made significant contributions to the development of quantum theory, nuclear and particle physics, and statistical mechanics. Fermi's first major contribution was to statistical mechanics. After Wolfgang Pauli announced his exclusion principle in 1925, Fermi followed with a paper in which he applied the principle to an ideal gas, employing a statistical formulation now known as Fermi–Dirac statistics. Today, particles that obey the exclusion principle are called "fermions". Later Pauli postulated the existence of an uncharged invisible particle emitted along with an electron during beta decay, to satisfy the law of conservation of energy. Fermi took up this idea, developing a model that incorporated the postulated particle, which he named the "neutrino". His theory, later referred to as Fermi's interaction and still later as weak interaction, described one of the four fundamental forces of nature. Through experiments inducing radioactivity with recently discovered neutrons, Fermi discovered that slow neutrons were more easily captured than fast ones, and developed the Fermi age equation to describe this. After bombarding thorium and uranium with slow neutrons, he concluded that he had created new elements; although he was awarded the Nobel Prize for this discovery, the new elements were subsequently revealed to be fission products. Fermi left Italy in 1938 to escape new Italian Racial Laws that affected his Jewish wife Laura Capon. He emigrated to the United States where he worked on the Manhattan Project during World War II. Fermi led the team that designed and built Chicago Pile-1, which went critical on 2 December 1942, demonstrating the first artificial self-sustaining nuclear chain reaction. He was on hand when the X-10 Graphite Reactor at Oak Ridge, Tennessee, went critical in 1943, and when the B Reactor at the Hanford Site did so the next year. At Los Alamos he headed F Division, part of which worked on Edward Teller's thermonuclear "Super" bomb. He was present at the Trinity test on 16 July 1945, where he used his Fermi method to estimate the bomb's yield. After the war, Fermi served under J. Robert Oppenheimer on the General Advisory Committee, which advised the Atomic Energy Commission on nuclear matters and policy. Following the detonation of the first Soviet fission bomb in August 1949, he strongly opposed the development of a hydrogen bomb on both moral and technical grounds. He was among the scientists who testified on Oppenheimer's behalf at the 1954 hearing that resulted in the denial of the latter's security clearance. Fermi did important work in particle physics, especially related to pions and muons, and he speculated that cosmic rays arose through material being accelerated by magnetic fields in interstellar space. Many awards, concepts, and institutions are named after Fermi, including the Enrico Fermi Award, the Enrico Fermi Institute, the Fermi National Accelerator Laboratory, the Fermi Gamma-ray Space Telescope, the Enrico Fermi Nuclear Generating Station, and the synthetic element fermium (one of just over a dozen elements named after people). 

   Enrico Fermi was born in Rome on 29 September 1901. He was the third child of Alberto Fermi, a division head (Capo Divisione) in the Ministry of Railways, and Ida de Gattis, an elementary school teacher. His only sister, Maria, was two years older than him, and his brother Giulio was a year older. After the two boys were sent to a rural community to be wet nursed, Enrico rejoined his family in Rome when he was two and a half. Although he was baptised a Roman Catholic in accordance with his grandparents' wishes, his family, like most Italian families, was not particularly religious; Enrico was an agnostic throughout his adult life. As a young boy he shared the same interests as his brother Giulio, building electric motors and playing with electrical and mechanical toys. Giulio died during the administration of an anesthetic for an operation on a throat abscess in 1915. One of Fermi's first sources for his study of physics was a book he found at the local market at Campo de' Fiori in Rome. Published in 1840, the 900-page Elementorum physicae mathematicae, was written in Latin by Jesuit Father Andrea Caraffa, a professor at the Collegio Romano. It covered mathematics, classical mechanics, astronomy, optics, and acoustics, insofar as these disciplines were understood when the book was written. Fermi befriended another scientifically inclined student, Enrico Persico, and together the two worked on scientific projects such as building gyroscopes and trying to accurately measure the acceleration of Earth's gravity. Fermi's interest in physics was further encouraged by his father's colleague Adolfo Amidei, who gave him several books on physics and mathematics, which he read and assimilated quickly. Fermi graduated from high school in July 1918 and, at Amidei's urging, applied to the Scuola Normale Superiore in Pisa. Having lost one son, his parents were reluctant to let him move away from home for four years while attending the Sapienza University of Rome, but in the end they acquiesced. The school provided free lodging for students, but candidates had to take a difficult entrance exam that included an essay. The given theme was "Specific characteristics of Sounds". The 17-year-old Fermi chose to derive and solve the partial differential equation for a vibrating rod, applying Fourier analysis in the solution. The examiner, Professor Giuseppe Pittarelli from the Sapienza University of Rome, interviewed Fermi and praised that he would become an outstanding physicist in the future. Fermi achieved first place in the classification of the entrance exam. During his years at the Scuola Normale Superiore, Fermi teamed up with a fellow student named Franco Rasetti with whom he would indulge in light-hearted pranks and who would later become Fermi's close friend and collaborator. In Pisa, Fermi was advised by the director of the physics laboratory, Luigi Puccianti, who acknowledged that there was little that he could teach Fermi, and frequently asked Fermi to teach him something instead. Fermi's knowledge of quantum physics reached such a high level that Puccianti asked him to organize seminars on the topic. During this time Fermi learned tensor calculus, a mathematical technique invented by Gregorio Ricci and Tullio Levi-Civita that was needed to demonstrate the principles of general relativity. Fermi initially chose mathematics as his major, but soon switched to physics. He remained largely self-taught, studying general relativity, quantum mechanics, and atomic physics. In September 1920, Fermi was admitted to the Physics department. Since there were only three students in the department—Fermi, Rasetti, and Nello Carrara—Puccianti let them freely use the laboratory for whatever purposes they chose. Fermi decided that they should research X-ray crystallography, and the three worked to produce a Laue photograph—an X-ray photograph of a crystal. During 1921, his third year at the university, Fermi published his first scientific works in the Italian journal Nuovo Cimento. The first was entitled "On the dynamics of a rigid system of electrical charges in translational motion" (Sulla dinamica di un sistema rigido di cariche elettriche in moto traslatorio). A sign of things to come was that the mass was expressed as a tensor—a mathematical construct commonly used to describe something moving and changing in three-dimensional space. In classical mechanics, mass is a scalar quantity, but in relativity it changes with velocity. The second paper was "On the electrostatics of a uniform gravitational field of electromagnetic charges and on the weight of electromagnetic charges" (Sull'elettrostatica di un campo gravitazionale uniforme e sul peso delle masse elettromagnetiche). Using general relativity, Fermi showed that a charge has a weight equal to U/c2, where U was the electrostatic energy of the system, and c is the speed of light. The first paper seemed to point out a contradiction between the electrodynamic theory and the relativistic one concerning the calculation of the electromagnetic masses, as the former predicted a value of 4/3 U/c2. Fermi addressed this the next year in a paper "Concerning a contradiction between electrodynamic and the relativistic theory of electromagnetic mass" in which he showed that the apparent contradiction was a consequence of relativity. This paper was sufficiently well-regarded that it was translated into German and published in the German scientific journal Physikalische Zeitschrift in 1922. That year, Fermi submitted his article "On the phenomena occurring near a world line" (Sopra i fenomeni che avvengono in vicinanza di una linea oraria) to the Italian journal I Rendiconti dell'Accademia dei Lincei. In this article he examined the Principle of Equivalence, and introduced the so-called "Fermi coordinates". He proved that on a world line close to the time line, space behaves as if it were a Euclidean space. 

A light cone is a three-dimensional surface of all possible light rays arriving at and departing from a point in spacetime. Here, it is depicted with one spatial dimension suppressed. The time line is the vertical axis. Fermi submitted his thesis, "A theorem on probability and some of its applications" (Un teorema di calcolo delle probabilità ed alcune sue applicazioni), to the Scuola Normale Superiore in July 1922, and received his laurea at the unusually young age of 21. The thesis was on X-ray diffraction images. Theoretical physics was not yet considered a discipline in Italy, and the only thesis that would have been accepted was one on experimental physics. For this reason, Italian physicists were slow in embracing the new ideas like relativity coming from Germany. Since Fermi was quite at home in the lab doing experimental work, this did not pose insurmountable problems for him. While writing the appendix for the Italian edition of the book Fundamentals of Einstein Relativity by August Kopff in 1923, Fermi was the first to point out that hidden inside the famous Einstein equation (E = mc2) was an enormous amount of nuclear potential energy to be exploited. "It does not seem possible, at least in the near future", he wrote, "to find a way to release these dreadful amounts of energy—which is all to the good because the first effect of an explosion of such a dreadful amount of energy would be to smash into smithereens the physicist who had the misfortune to find a way to do it." In 1924 Fermi was initiated to the Freemasonry in the Masonic Lodge "Adriano Lemmi" of the Grand Orient of Italy. Fermi decided to travel abroad, and spent a semester studying under Max Born at the University of Göttingen, where he met Werner Heisenberg and Pascual Jordan. Fermi then studied in Leiden with Paul Ehrenfest from September to December 1924 on a fellowship from the Rockefeller Foundation obtained through the intercession of the mathematician Vito Volterra. Here Fermi met Hendrik Lorentz and Albert Einstein, and became good friends with Samuel Goudsmit and Jan Tinbergen. From January 1925 to late 1926, Fermi taught mathematical physics and theoretical mechanics at the University of Florence, where he teamed up with Rasetti to conduct a series of experiments on the effects of magnetic fields on mercury vapour. He also participated in seminars at the Sapienza University of Rome, giving lectures on quantum mechanics and solid state physics. While giving lectures of new quantum mechanics based on remarkable accuracy of predictions of Schrödinger equation, the Italian physicist would often say, "It has no business to fit so well!". After Wolfgang Pauli announced his exclusion principle in 1925, Fermi responded with a paper "On the quantisation of the perfect monoatomic gas" (Sulla quantizzazione del gas perfetto monoatomico), in which he applied the exclusion principle to an ideal gas. The paper was especially notable for Fermi's statistical formulation, which describes the distribution of particles in systems of many identical particles that obey the exclusion principle. This was independently developed soon after by the British physicist Paul Dirac, who also showed how it was related to the Bose–Einstein statistics. Accordingly, it is now known as Fermi–Dirac statistics. Following Dirac, particles that obey the exclusion principle are today called "fermions", while those that do not are called "bosons".

Super Humans - Shakuntala Devi

    Shakuntala Devi (4 November 1929 – 21 April 2013) was an Indian writer and mental calculator, popularly known as the "human computer". A child prodigy, her talents eventually earned her a place in the 1982 edition of The Guinness Book of World Records. As a writer, Devi wrote a number of books, including novels as well as texts about mathematics, puzzles, and astrology. She also wrote what is considered the first study of homosexuality in India; it treated homosexuality in an understanding light and is considered pioneering. Shakuntala Devi was born in Bengaluru, India, to an orthodox Kannada Brahmin family. Her father rebelled against becoming a temple priest and instead joined a circus where he worked as a trapeze artist, lion tamer, tightrope walker and magician. He discovered his daughter's ability to memorize numbers while teaching her a card trick when she was about three years old. Her father left the circus and took her on road shows that displayed her ability at calculation. She did this without any formal education. By the age of six she demonstrated her calculation and memorization abilities at the University of Mysore. In 1944, Devi moved to London with her father. Devi traveled the world demonstrating her arithmetic talents, including a tour of Europe in 1950 and a performance in New York City in 1976. In 1988, she traveled to the US to have her abilities studied by Arthur Jensen, a professor of psychology at the University of California, Berkeley. Jensen tested her performance of several tasks, including the calculation of large numbers. Examples of the problems presented to Devi included calculating the cube root of 61,629,875 and the seventh root of 170,859,375. Jensen reported that Devi provided the solution to the aforementioned problems (395 and 15, respectively) before Jensen could copy them down in his notebook. Jensen published his findings in the academic journal Intelligence in 1990. In 1977, at Southern Methodist University, she was asked to give the 23rd root of a 201-digit number; she answered in 50 seconds.Her answer—546,372,891—was confirmed by calculations done at the US Bureau of Standards by the UNIVAC 1101 computer, for which a special program had to be written to perform such a large calculation. On 18 June 1980, she demonstrated the multiplication of two 13-digit numbers—7,686,369,774,870 × 2,465,099,745,779—picked at random by the Computer Department of Imperial College London. She correctly answered 18,947,668,177,995,426,462,773,730 in 28 seconds. This event is mentioned in the 1982 Guinness Book of Records. Writer Steven Smith states that the result is "so far superior to anything previously reported that it can only be described as unbelievable". She returned to India in the mid-1960s and married Paritosh Banerji, an officer of the Indian Administrative Service from Kolkata. They were divorced in 1979. In 1980, she contested in the Lok Sabha elections as an independent, from Bombay South and from Medak in Andhra Pradesh. In Medak she stood against Indira Gandhi, saying she wanted to "defend the people of Medak from being fooled by Mrs. Gandhi"; she stood ninth, with 6514 votes (1.47% of the votes). Devi returned to Bengaluru in the early 1980s. In addition to her work as a mental calculator, Devi was an astrologer and an author of several books, including cookbooks and novels.