The Four Gospels

A gospel (from Old English, gōd spell "good news") is a writing that describes the life of Jesus. The word is primarily used to refer to the four canonical gospels: the Gospel of Matthew, Gospel of Mark, Gospel of Luke and Gospel of John, probably written between AD 65 and 80. They appear to have been originally untitled; they were quoted anonymously in the first half of the second century (i.e. 100 - 150) but the names by which they are currently known appear suddenly around the year 180. The first canonical gospel written is thought by most scholars to be Mark (c 65-70). (Wikipedia, the online free encyclopedia) 

Dolphins can stay constantly alert for more than two weeks

Dolphin (aquatic mammal), fast-swimming mammal belonging to the order Cetacea, which also includes whales and porpoises. Sleek and powerful swimmers, dolphins are found in seas throughout the world; some inhabit freshwater rivers and lakes. Characteristic features of most dolphins are long snouts with rows of sharp teeth, and rounded foreheads with a nostril on top, known as the blowhole.

There are at least 40 species of dolphins. Dolphins resemble fish in many ways, but they exhibit a number of true mammalian characteristics: They are warm-blooded, breathe air, and nurse their young on milk. Dolphins and porpoises have a similar appearance, but dolphins can be distinguished from porpoises by their more prominent snouts and conical teeth. Porpoises have blunt snouts, chisel-shaped teeth, and a stouter body than dolphins.

Sailors have long considered the presence of dolphins cruising alongside the bows of ships as a good omen and a promise of fair weather. Dolphins also figure prominently in folklore, often appearing in works of art, on coins and currency, and on stamps. Ancient Greek coins depicted the son of Poseidon seated on a dolphin, and the ancient Roman author Pliny the Elder wrote a story of a dolphin that carried a poor man's son to school each day. Many classical writers described how dolphins harnessed to chariots helped maidens in distress. A dolphin was on the coat of arms of the dauphin, the title given the eldest son and heir of the king of France.

Some interesting tidbits about various States of the United States

• Alabama: Was the first state to have 9-1-1, started 1968.
• Alaska: One out of every 64 people has a pilot's license. 
• Arizona: Is the only state in the continental U.S. that does not follow Daylight Savings Time. 
• Arkansas: Has the only active diamond mine in the U.S. 
• California: Its economy is so large that if it were a country, it would rank seventh in the entire world. 
• Colorado: In 1976 it became the only state to turn down the Olympics. 
• Connecticut: The Frisbee was invented here at Yale University 
• Delaware: Has more scientists and engineers than any other state. 
• Florida: At 874.3 square miles, Jacksonville is the largest city in the U.S. 
• Georgia: It was here, in 1886, that pharmacist John Pemberton made the first vat of Coca-Cola....interesting! 
• Hawaii: Hawaiians live, on average, five years longer than residents of any other state. 
• Idaho: TV was invented in Rigby, Idaho, in 1922. 
• Illinois: Has a Governor in jail, one pending jail, and is the most corrupt state in the union! 

Early Music -- during ancient Greek and Roman empires (500 B.C. to 300 A.D.)

The first European music is that of the ancient Greeks and Romans, dating from roughly 500 B.C. to A.D. 3OO. Fewer than a dozen examples of Greek music from this period, written in an alphabetical notation, survive. Ancient Greek philosophers believed that music originated from the god Apollo, as well as from the mythological musician Orpheus and other divinities. They also believed that music reflected in microcosm the laws of harmony that rule the universe, and that music influenced human thought and actions.

The Greek philosopher Pythagoras (ca. 580 B.C.-ca. 500 B.C.) discovered the mathematical relationships between specific frequencies and musical inrervals, using a single-string instrument (called a monochord) to produce the various intervals. For example, two notes whose frequencies form a ratio of 2:1 sound one octave apart; a ratio of 3:2 forms an interval of a fifth, and a ratio of 4:3 forms a fourth. These basic intervals combine to create the modes and scales on which all Western melodies and harmony are based.

How many hairs does the average person have on his or her head and how much does human hair grow in a year?

The amount of hair covering varies from one individual to another. An average person has about 100,000 hairs on their scalp. Most redheads have about 90,000 hairs, blonds have about 140,000, and brunettes fall in between these two figures. Most people shed between 50 to 100 hairs daily. Each hair grows about 5 inches (12.7 centimeters) every year. (The Handy Science Answer Book, compiled by the Science and Technology department of the Carnegie Library of Pittsburgh)

Can a person get a suntan through a window?

No. The ultraviolet radiation that causes suntan does not pass through glass. A tan is the skin 's natural defense against these harmful sun rays. Pigment cells in the lower skin level make more pigment and melanin to absorb the ultraviolet rays. As the pigment spreads into the top layer of the skin, it becomes darker. (The Handy Science Answer Book, compiled by the Science and Technology department of the Carnegie Library of Pittsburgh)

The original meaning of the word “scapegoat”

As described in Leviticus 16:1-27, part of a Hebrew ritual on the Day of Atonement involved the presentation of two male goats at the altar of the tabernacle. After lots were cast, one goat was sacrificed to the Lord; the other, the  ‘scapegoat’, was set aside for Azazel, an evil spirit of the wilderness. The high priest transferred the sins of the people onto this goat and sent it away into the desert. (The Book of Answers, by Barbara Berliner)

What to do when you get sick -- making the right decisions

When you get sick, you must decide what course of action to take in order to recover your health. If you do not accept this responsibility, others will decide for you and will not necessarily make the best choices. The most important decision is whether visits to health professionals will help or hinder your own healing system. You will need to understand the nature of your illness and to know whether conventional medicine can do anything for it without reducing the possibility of spontaneous healing. You will also want to know whether any alternative treatments exist that might be of benefit.

A good place to start is with a review of what conventional medicine can do effectively and what it cannot. For example, it is very effective at managing trauma, so that if I were in a serious automobile accident, I would want to go directly to an urgent care facility in a modem hospital, not to a shaman, guided imagery therapist, or acupuncturist. (Once out of danger, I might use those other resources to speed up the natural healing process.) Conventional medicine is also very good at diagnosing and managing crises of all sorts: hemorrhages, heart attacks, pulmonary edema, acute congestive heart failure, acute bacterial infections, diabetic comas, bowel obstructions, acute appendicitis, and so forth. You must be able to recognize symptoms of potentially serious conditions, so that you will not waste time before getting needed treatment. In general, symptoms that are unusually severe, persistent, or out of the range of your normal experience warrant immediate investigation.

Color Blindness

Color blindness is a defect of vision affecting the ability to distinguish colors, occurring mostly in males. It involves a person’s inability to distinguish one or more of the three colors red, green, and blue. It is noteworthy to know that the ability to see color exists in only a few vertebrates, including, among others, man and the other primates, fish, amphibians, some reptiles, and some birds; and in bees and butterflies.

The first detailed report on this condition was written by the British chemist John Dalton, who was himself afflicted with it. Total color blindness, in which all hues are perceived as variations of gray, is known as achromatopsia or monochromatism. This condition is congenital, extremely rare, and affects men and women almost equally. Partial color blindness, called dichromatism, consists generally of the inability to differentiate between the reds and the greens or to perceive either reds or greens; infrequently, the confusion may involve the blues or the yellows. Dichromatism is the most common form of color blindness, affecting about 7 percent of men and less than 1 percent of women. Dichromatism is identified as a sex-linked hereditary characteristic. Color blindness also may occur as a temporary condition following a serious illness.

Heavy Water

Heavy water contains heavy hydrogen, or deuterium, instead of normal hydrogen.  Deuterium is the stable, nonradioactive isotope of hydrogen with atomic weight 2.01363 and symbol D, or 2H. It is commonly called heavy hydrogen because its atomic weight is approximately double that of ordinary hydrogen, but it has identical chemical properties. Deuterium has about twice the atomic weight of normal hydrogen because its nucleus contains a proton and a neutron, instead of just a proton. Hydrogen as it occurs in nature contains approximately 0.02 percent of deuterium. The boiling point of deuterium is -249.49° C (-417.08° F), or 3.28° C (5.90° F) higher than that of ordinary hydrogen. Heavy water (deuterium oxide, D2O) boils at 101.42° C (214.56° F) as compared to 100° C (212° F), the boiling point of ordinary water. It freezes at 3.81° C (38.86° F) as compared to 0° C (32° F) for ordinary water. Its density at room temperature is 10.79 percent greater than that of ordinary water.

Deuterium, which was discovered by the American chemist Harold Urey and his associates in 1932, was the first isotope to be separated in a pure form from an element. Several methods have been used to separate the isotope from natural hydrogen. The two processes that have been most successful have been fractional distillation of water and a catalytic exchange process between hydrogen and water. In the latter system, when water and hydrogen are brought together in the presence of a suitable catalyst, about three times as much deuterium appears in the water as in hydrogen. Deuterium has also been concentrated by electrolysis, centrifuging, and fractional distillation of liquid hydrogen.

Book of the Dead

The name generally given to a large collection of funerary texts of various dates, containing magical formulas, hymns, and prayers believed by the ancient Egyptians to guide and protect the soul (Ka) in its journey into the region of the dead (Amenti). Egyptians believed that the knowledge of these texts enabled the soul to ward off demons attempting to impede its progress, and to pass the tests set by the 42 judges in the hall of Osiris, god of the underworld. These texts also indicated that happiness in the afterlife was dependent on the deceased's having led a virtuous life on earth. The earliest religious (funerary) texts known were found cut in hieroglyphs on the walls inside the pyramids of the kings of the 5th and 6th Dynasties of the Old Kingdom; these became known as the Pyramid Texts. A famous example is found in the pyramid of Unas (reigned about 2356-2323 BC), the last king of the 5th Dynasty. In the first Intermediate Period and in the Middle Kingdom private individuals had these texts painted on coffins, from which the alternate name Coffin Texts is derived. By the 18th Dynasty the texts were inscribed on papyri placed in the mummy case; these papyri were frequently from 15 to 30 m (50 to 100 ft) long and illustrated in color.

Solar-terrestrial effects

Besides providing light and heat, the Sun affects the Earth through its ultraviolet radiation, the steady stream of the solar wind, and the particle storms of great flares. The near-ultraviolet radiation from the Sun produces the ozone layer, which in turn shields the planet from such radiation. The soft (long-wavelength) X rays from the solar corona produce those layers of the ionosphere that make short-wave radio communication possible. The harder (shorter-wavelength) X-ray pulses from flares ionize the lowest ionospheric layer, producing radio fadeouts. The Earth's rotating magnetic field is strong enough to block the solar wind, forming the magnetosphere, around which the solar particles and fields flow. On the side opposite to the Sun, the field lines stretch out in a structure called the magnetotail. When shocks arrive in the solar wind, a short, sharp increase in the field of the Earth is produced. When the interplanetary field switches to a direction opposite the Earth's field, or when big clouds of particles enter it, the fields in the magnetotail reconnect and energy is released, producing the aurora borealis (northern lights). Big flares or coronal mass ejections bring clouds of energetic particles that form a ring current around the magnetosphere, which produces sharp fluctuations in the Earth's field called geomagnetic storms. These phenomena disturb radio communication and produce voltage surges in long-distance transmission lines and other long conductors.

Population growth in Paris and New York

It is estimated that in 1800 the population of Paris was about 550,000 and New York’s about 60,000. In 1931, however, these numbers increased to 2,800,000 for Paris and 7,400,000 for New York. (Adapted from 'The Timetables of History', by Bernard Grun, based upon Werner Stein’s Kulturfahrplan)

The Splice of Life

Dr. James Watson, left, and Dr. Francis Crick with their 

Nobel Prize-winning model of the DNA molecule

Genetic engineering is the process that inserts genes from one living organism into the cells of another, thereby custom-tailoring them to do work they weren't designed for. For example, thanks to genetic engineering, or recombinant-DNA technique, millions of bacteria are kept busy churning out precious human insulin. Scientists built the micro-factories by slipping the human gene responsible for the creation of insulin into E. coli, a mild-mannered bacterium found in our intestinal tract. So far, genetic engineering has been most successful with microorganisms, plants, mice (whose immune systems have been made to mimic those of human beings), and-Stephen King, take note -- livestock: pigs that gain weight faster, cows that give more milk. Science is still working on the problem of getting genetically altered DNA back into a human cell and, we're told, isn't even close to a solution. Someday, however, we may be able to replace or repair bad genes, like the ones responsible for such diseases as cystic fibrosis, sickle-cell anemia, and perhaps even cancer.

Strategic minerals

Strategic minerals are minerals essential to the national defense -- the supply of which a country uses but cannot produce itself. 33% to 50% of the 80 minerals used by industry could be classed as strategic minerals. Wealthy countries, such as the United States, stockpile these minerals to avoid any crippling effect on their economy or military strength if political circumstances were to cut off their supplies. The United States, for instance, stockpiles bauxite (14.5 million tons), manganese (2.2 million tons), chromium (1.8 million tons), tin (185,000 tons), cobalt (19,000 tons), tantalum (635 tons), palladium (1.25 million troy ounces), and platinum (453,000 troy ounces). (The Handy Science Answer Book, compiled by the Science and Technology department of the Carnegie Library of Pittsburgh)

Electron Microscope

A microscope that uses electrons instead of visible light to produce highly magnified images of objects. Scientists use electron microscopes in many different fields of research, including medicine, biology, chemistry, metallurgy, entomology (the study of insects), and physics. Since its introduction in the 1930s, the electron microscope has revolutionized the study of microscopic structures and surfaces. See also Microscope.

Microscopes can only resolve structures that are larger than the length of the waves (such as light waves) reflecting off of them. Electron microscopes are able to obtain much higher powers of magnification than standard visible light microscopes because electrons have much shorter wavelengths associated with them than light waves. The highest magnification achievable with light microscopes is about 2,000X (times); modern electron microscopes can achieve magnifications approaching 1,000,000X.

Their invention

The invention of the electron microscope was made possible by a number of theoretical and experimental advances in physics and engineering. The main concept on which the electron microscope is founded—that electrons have a wavelike nature—was hypothesized by French physicist Prince Louis Victor de Broglie in 1923 (see Quantum Theory). In 1927, de Broglie’s hypothesis was experimentally verified by American physicists Clinton J. Davisson and Lester H. Germer, and independently by English physicist George Paget Thomson. In 1932 German engineers Max Knoll and Ernst Ruska built the first transmission electron microscope. In 1938 Ruska and German engineer Bodo von Borries built the first model of the commercial TEM for the Siemens-Halske Company in Berlin, Germany. The English engineer Sir Charles Oatley invented the SEM in its present form in 1952.

intra-abdominal fat

what is it?  Fat packed deep in the abdomen, in and around your internal organs. Women with waists over 35 inches and men with waists over 40 inches are likely to have it. (For people of Asian descent, risk rises with measurements over 31.5 inches for women and 37.5 for men.) A large waist is dangerous even if your body weight is within the " healthy" range for your height. To measure your waist, wrap a tape measure snugly around your midsection at about belly-button height.

What causes it? Too many hamburgers, too much TV, and too much of all those other activities that keep you sitting down, like working and driving. In other words, a diet high in calories and a life devoid of exercise. Chronic stress plays a role, too, especially for women, since the stress hormone cortisol directs your body to store more fat in your abdomen.

1. A high-calorie diet, lack of exercise, and chronic stress conspire to prompt your body to store dangerous fat around your liver, pancreas, and other internal organs.

2. Intra-abdominal fat pumps free fatty acids and inflammatory compounds into the portal vein, the "superhighway" that delivers blood from your lower abdomen to the liver, pancreas, and other internal organs.

3. An influx of free fatty acids causes your liver to produce more “bad” LDL cholesterol, less “good” HDL cholesterol, more blood sugar, and less adiponectin, a hormone that regulates the use of blood sugar and keeps appetite in check. The result: Your risk of heart disease and diabetes rises.

4. The inflammatory compounds secreted by fat cells encourage the growth of plaque inside artery walls, boost blood pressure, and make blood more likely to clot - a recipe for a heart attack. They also make cells resistant to insulin, which in turn contributes to diseases from Alzheimer's to cancer.

Which are really the fattening foods?

(‘A Diet for a New America’, by John Robbins)

Breast Cancer – What we Know

The incidence of breast cancer in the United States began climbing steadily in the early 1970s, and is now the highest ever seen in human history. Nearly 50,000 American women die of the disease every year. In the face of this tragedy, a great deal of attention has been given to genetics, but the presence of the breast cancer susceptibility gene, called BRCA-1, only accounts for at most 5 percent of breast cancers.

Exercise is very important to breast cancer risk. In fact, women who exercise (walk) for four hours per week lower their risk by 33 percent. And women who exercise more than that lower their risk even further. [29]

But diet, it turns out, is even more important. . .

What We Know

Death rate from breast cancer in the United States: 22.4 (per 100,000)

Death rate from breast cancer in Japan: 6.3 (per 100,000)

Death rate from breast cancer in China: 4.6 (per 100,000)

Primary reasons for difference: People in China and Japan eat more fruits and vegetables and less animal products, weigh less, drink less alcohol, and get more exercise than people in the United States.

The rainiest place on Earth

The wettest place in the world is Tutunendo, Colombia, with an average annual rainfall of 463.4 inches (1177 centimeters) per year. The place that has the most rainy days per year is Mount Waialeale (means ‘rippling water’) on Kauai, Hawaii. It has up to 350 rainy days annually.

In contrast the longest rainless period in the world was from October, 1903, to January, 1918, at Arica, Chile - a period of 14 years. In the United States the longest dry spell was 767 days at Bagdad, California, from October 3, 1912, to November 8, 1914. (The Handy Science Answer Book, compiled by the Science and Technology department of the Carnegie Library of Pittsburgh)

Fungal Diseases of Plants

Most types of plant-related diseases are caused by fungi. The leaves of this plant have been infected by tar-spot fungus. Fungi can infect all parts of the plant including leaves, stems, flowers, roots, and fruit. The physical manifestations of fungal diseases of plants include wilting, club root, root rot, wood rot, cankers, various types of mildews, blights, lesions, and leaf spots. The effects of fungal diseases can be devastating as evidenced by the potato blight that destroyed the Irish potato harvest of 1845 and caused a widespread famine in Ireland. (Encarta Encyclopedia) 

Geometry

Geometry is a branch of mathematics that deals with shapes and sizes. Geometry may be thought of as the science of space. Just as arithmetic deals with experiences that involve counting, so geometry describes and relates experiences that involve space. Basic geometry allows us to determine properties such as the areas and perimeters of two-dimensional shapes and the surface areas and volumes of three-dimensional shapes. People use formulas derived from geometry in everyday life for tasks such as figuring how much paint they will need to cover the walls of a house or calculating the amount of water a fish tank holds.

Geometry combines simple conceptual building blocks to construct complex logical structures. These building blocks include undefined terms, defined terms, and postulates. Combining these components creates chains of reasoning that support conclusions called theorems.

Undefined terms

Some concepts central to geometry are not defined in terms of simpler concepts. The most familiar of these undefined terms are point, line, and plane.

What Matter Is Made Of

The best analogy for how we are coming to understand matter is the peeling of an onion. We peel off one layer and penetrate to a deeper one, only to discover that there is yet another to work on. The first layer was peeled off our onion in 1805, when British chemist John Dalton published the modern atomic theory of matter. He showed that the enormous variety of substances that surround us is made up of only a few different chemical elements, each of which has its own type of atom. In the early twentieth century the second layer was peeled off when the structure of the atom was revealed. All of the different kinds of atoms, it was argued, were made up of only three kinds of elementary particles – protons and neutrons in the nucleus and electrons orbiting the nucleus; this picture of the atom would become more or less standard. For a while, its inherent simplicity seemed to be clouded when it was found that there were not just two types of particles inside the nucleus, but hundreds. Most of these appeared and disappeared too quickly to be seen, but they could be produced independently in accelerators.

In the mid-1960s, yet another layer was peeled off. It was pointed out that the myriad elementary particles are actually made up of a small number of still more basic entities called quarks. Quarks are held together by particles called gluons -- they're the Elmer's that keeps the three quarks of a proton or neutron together. Scientists believe that these particles derive from an even more basic form of matter called quark-gluon plasma, a primordial soup that made up the universe ten millionths of a second after the Big Bang. As things cooled down, this liquid went through "hadronization," hardening into protons and neutrons, which in turn coalesced first into nuclei, then into atoms. After that, the atoms came together to form molecules, which eventually transformed into you, this book, and the easy chair you're sitting in. At least, that's the theory. (‘An Incomplete Education’, by Judy Jones and William Wilson)

What on Earth? – a helping hand

Not all inventions change our lives, some just make us scratch our heads.

For all those waiters rushed off their feet, Philip Garner (U.S.) has invented this helping hand. Although unable to snap fingers for the busboy, it is ambidextrous. (‘Inventions and Discoveries’)

Human beings are virtually identical to one another at the level of genes

In our own genetic profile, believe it or not, scientific evidence indicates that we humans share 99.4 percent of our total DNA sequences with the chimpanzees. This doesn’t mean, of course, that humans are direct descendants from our tree-swinging friends, but it does emphasize that the genius of our molecular code is supported by eons of nature’s greatest evolutionary effort. Our human code was not a random act, at least not in its entirety, but rather is better constructed as nature’s ever-evolving quest for a body of genetic perfection.

As members of the same human species, you and I share all but 0.01 percent (1/100^th of 1 percent) of identical genetic sequences. So biologically, as species, you and I are virtually identical to one another at the level of genes (99.99 percent). Looking around at the diversity within our human race, it is obvious that 0.01 percent accounts for a significant difference in how we look, think and behave. (‘My Stroke of Insight’, by Jill Bolte Taylor, Ph.D.)

Viruses are not considered living organisms

Because they are unable to accomplish life's processes by themselves, viruses are not considered living organisms. They are able to metabolize and reproduce only when they are within living cells. Thus, all viruses are parasites, and many of them cause disease.

Much smaller than the smallest bacteria, most viruses consist only of a strand or two of a nucleic acid – DNA or RNA - wrapped in a protein coat. Some also have a lipid envelope outside the coat. A virus reproduces and spreads because once its nucleic acid is inside a cell, the virus uses the cell's own DNA to produce additional copies of itself. (‘The New York Times Guide to Essential Knowledge’)

Fur and feathers for protection … and

Mammals have fur and birds have feathers for protection. What covers butterflies and moths?

Answer: Butterflies and moths are covered with colored scales. (Science Challenge, by E. John De Waard and Nancy De Waard)

The Origin of Language

The use of language is one of the key characteristics that distinguish Homo sapiens from other primates. Because no direct evidence of language exists in the fossil record, researchers have had a difficult time inferring its development. Fortunately, the evolutionary history of the human brain and throat offers some insight.

The human brain plays a vital role in the production and comprehension of language; therefore, the emergence of language capabilities should be reflected somehow in changes to the brain's structure. If this is true, the fossil record can help. Although brain tissue doesn't fossilize, surviving crania can be used to make endocasts, which reveal the shape of the brain that the cranium being cast once held. Because studies of modern human brains have identified the areas where speech production and language comprehension take place, researchers using endocasts can trace the development of these areas over time.

Differences observed in the throat anatomies of modern humans and primates have also aided researches in making inferences about the development of language capabilities. The larynx, for example, occupies a lower position in the human throat than it does in the throats of other primates. This arrangement makes possible the large human pharynx, which produces the relatively wide variety of sounds used in human speech. There is, however, a strong disadvantage to this arrangement: a greatly increased risk of choking while eating or drinking. Therefore, language must have been a strongly advantageous trait; otherwise, the increased incidence of choking would have ensured its elimination through the process of natural selection.

It takes less energy to be a healthy person than to be a sick one

How would you experience optimal efficiency of your healing system? Very likely you would not be aware of it, because we tend to pay little attention to our health when it is good. You would recover speedily from illness and heal from injuries uneventfully. Ordinary stresses of everyday life might annoy you but would not derange your digestion or blood pressure. Sleep would be restful, sex enjoyable. Aging of your body would occur gradually, allowing you to moderate your activity appropriately and live out a normal life span without undue discomfort. You would not contract heart disease or cancer in middle age, be crippled by arthritis in later life, or lose your mind to premature senility.

This scenario is realistic and, I think, worth working for. Actually, the body wants to be healthy, because health represents efficient operation of all of its systems. A useful analogy is the engine of a far. When all components are doing what they should be doing in just the right way, efficiency is maximal, and operation is quiet, producing a "contented" purr that you rarely notice. An engine that calls attention to itself by sounding noisy and rough, hocking, and expelling black smoke is not efficient. Since efficiency is the ratio of work done to energy supplied, the sick engine is working harder to accomplish less. In a similar way it takes less energy to be a healthy person than to be a sick one, and just as a driver may not pay attention to the sound of a well-running engine, people may not be aware of the condition of good health until it breaks down. A program to boost the efficiency of the healing system will not necessarily produce immediately noticeable changes. It is a long-term investment in the future of the body. (Andrew Weil, M.D., ‘Spontaneous Healing’)

“Wise Women” - their contributions to health and healing

Most medical histories chronicle great discoveries by great men, from Hippocrates, the father of medicine, to Alexander Fleming, who discovered penicillin. Their contributions should not be underestimated, but from ancient times down to the present day, a relatively small number of male physicians have made the great discoveries and ministered to the kings and princes, while an enormous number of women herbalists have taken care of everyone else.

Women healers have gone by many names: midwives, wise women, green women, witches, old wives, and nurses. Most physicians have never taken women's folk healing very seriously, and scientists often dismiss folk wisdom as "old wives' tales."

But the fact is, medically untrained women still provide most of the world's primary care. Even in the United States, most people view physicians as the health-care choice of last resort. The medical profession promotes the idea that family doctors are our "primary providers," but studies show that before people call health professionals, about 90 percent consult a friend or family member, and those "health advisers" are overwhelmingly women.

Not only that, women have always been the primary consumers of health care. Today women account for an estimated two-thirds of all physician visits and three-quarters of all prescriptions. It's no coincidence many herbs were used historically to calm the womb, trigger menstruation, induce abortion, promote or dry up mothers' milk, and treat infant colic and infectious diarrhea (still a leading cause of infant death in the Third World). These were the daily concerns women patients brought to their women healers.

The original use of the word “chaos”

In Greek mythology, Chaos was the primal void that gave birth to Gaea (Earth), Tartarus (Infernal Regions), Eros (Love), Erebus (Darkness), and Nyx (Night). (The Book of Answers, by Barbara Berliner)

On the back of the US $1 bill, what do the words “Annuit Coeptis” mean?

The motto above the eye on the dollar bill means, ''He [God] Favored Our Undertakings." The eye represents the all-seeing deity. The pyramid symbolizes strength; it is unfinished to suggest the work ahead. (The Book of Answers, by Barbara Berliner)

How Tuesday got its name

The Romans named the third day of the week dies Martis, for Mars, the god of war. It is still known as mardi in French and as martes in Spanish. The Germanic people used the name of their own war god, Tiu -- giving us the name Tuesday.

A few Tuesdays have special importance. The Tuesday after the first Monday in November is Election Day in the United States. People go to the polls to choose the officials who will run the government.

In the Christian calendar, Shrove Tuesday comes right before Lent, -- the 40-day period of prayer and fasting that leads up to Easter. It's -- the last chance for people to eat, drink, and make merry. In days gone by, people tried to use up all the butter and other fats they had on this day because they would have to give up fats during Lent. Rich, buttery foods became a Shrove Tuesday tradition. So this day is also known as Pancake Tuesday, and as Fat Tuesday (or Mardi Gras, in French).

Today some cities still hold Mardi Gras parades and festivals. The Mardi Gras celebration in New Orleans is one of the most famous. But most Tuesdays are just ordinary days. And Tuesdays of the past were pretty dull: Just as Monday was washday, Tuesday was ironing day. (Grolier New Book of Knowledge Encyclopedia)

Diet and High Blood Pressure

• Incidence of high blood pressure in meat eaters compared to vegetarians: Nearly triple

• Incidence of very high blood pressure in meat eaters compared to vegetarians: 13 times higher

• Patients with high blood pressure who achieve substantial improvement by switching to a vegetarian diet: 30-75 percent

• What patients are typically told when prescribed medications for high blood pressure: "You’ll probably need to take these for the rest of your life."

• Patients with high blood pressure who are able to completely discontinue use of medications after adopting a low-sodium, low-fat, high-fiber vegetarian diet: 58 percent

• Incidence of high blood pressure among senior citizens in United States: More than 50 percent

• Incidence of high blood pressure among senior citizens in countries eating traditional low-fat plant based diets: Virtually none (‘The Food Revolution: how your diet can help save your life and our world’, by John Robbins)

The actual shape of a raindrop

Although a raindrop has been illustrated as being pear-shaped or tear-shaped, high-speed photographs reveal that a large raindrop has a spherical shape with a hole not quite through it (giving it a doughnut-like shape). Water surface tension pulls the drop into this shape. As a drop larger than 0.08 inches (2 millimeters) in diameter falls, it will become distorted. Air pressure flattens its bottom and its sides bulge. If it becomes larger than 0.25 inches (6.4 millimeters) across, it will keep spreading crosswise as it falls and will bulge more at its sides, while at the same time, its middle will thin into a bow-tie shape. Eventually in its path downward, it will divide into two smaller spherical drops. (The Handy Science Answer Book, compiled by the Science and Technology department of the Carnegie Library of Pittsburgh)

Naming hurricanes and tropical storms

Since 1950, hurricane names are officially selected from library sources and are decided during the international meetings of the World Meteorological Organization (WHO). The names are chosen to reflect the cultures and languages found in the Atlantic, Caribbean, and Hawaiian regions. The National Hurricane Center near Miami, Florida, selects the name from one of the six listings for Region 4 (Atlantic and Caribbean area) when a tropical storm with rotary action and wind speeds above 39 miles (62 kilometers) per hour develops. Letters Q, U, X, Y, and Z are not included because of the scarcity of names beginning with those letters. Once a storm has done great damage, its name is retired from the six-year list cycle. (The Handy Science Answer Book, compiled by the Science and Technology department of the Carnegie Library of Pittsburgh)

Is Chicago the windiest city in the US?

In 1990 Chicago ranked 21st in the list of 68 windy cities with an average wind speed of 10.3 miles (16.6 kilometers) per hour. Cheyenne, Wyoming, with an average wind speed of 12.9 miles ( 20.8 kilometers) per hour, ranks number one, closely followed by Great Falls, Montana, with an average wind speed of 12.8 miles (20.6 kilometers) per hour. The highest surface wind ever recorded was on Mount Washington, New Hampshire, at an elevation of 6288 feet (1.9 kilometers). On April 12, 1934 its wind was 231 miles (371.7 kilometers) per hour and its average wind speed was 35 miles (56.3 kilometers) per hour. (The Handy Science Answer Book, compiled by the Science and Technology department of the Carnegie Library of Pittsburgh)

How hot is lightning?

The temperature of the air around a bolt of lightning is about 54,000 Fahrenheit (30,000 Celsius), which is six times hotter than the surface of the sun, yet many times people survive a bolt of lightning. American park ranger Roy Sullivan was hit by lightning seven times between 1942 and 1977. In cloud-to-ground lightning, its energy seeks the shortest route to Earth, which could be through a person's shoulder, down the side of the body through the leg to the ground. As long as the lightning does not pass across the heart or spinal column, the victim usually does not die. (The Handy Science Answer Book, compiled by the Science and Technology department of the Carnegie Library of Pittsburgh)

The first discovery of the harmful effects of cholesterol

Some of the first evidence indicating that atherosclerosis was not simply a consequence of growing old but was rooted in our dietary intake of saturated fat and cholesterol came inadvertently from the Korean War. Soldiers who had been killed were autopsied, and medical researchers were stunned by what they found. More than 77 percent of the American soldiers had blood vessels that were already narrowed by atherosclerotic deposits, while the arteries-of the equally young soldiers of the opposing forces showed no similar damage.

At the time, it was thought that the pronounced differences in the conditions of the soldiers' arteries might be more a consequence of genetic predisposition than of their differing diet-styles. But this idea became quickly untenable when a large group of Korean soldiers were put on the U.S. Army diet. They rapidly developed significant increases in their blood cholesterol levels, an unmistakable sign of developing atherosclerosis.

Traditional nutritionists had thought highly of meat, dairy products, and eggs ever since the early animal experiments that showed rats grew faster on animal protein. As well, the first vitamin ever discovered, vitamin A, had originally been isolated from butterfat, which also added to the aura of supremacy these foods enjoyed.

The 10 leading causes of death in the US during 1970's and 80's

('Diet for a New America', by John Robbins)

Electromagnetic force

It is this force that links atoms and molecules to form ordinary solid bodies. Thus, if your elbow doesn't sink into the wood of your desk while you are writing, it is because the electrons in the atoms of your desk and of your elbow push against each other by means of electromagnetic interaction.

The relationship between electricity and magnetism was discovered in 1820 by Christian Oersted (Denmark) in an experiment during which he noticed that a magnetic needle was deflected by an electric current. Andre Marie Ampere (France) later generalized these observations, but it was James Clerk Maxwell (Great Britain) who, in 1864, formulated the general laws of electromagnetism and showed that light was nothing but an electromagnetic wave.

Since the 1930s a number of physicists such as P.A.M. Dirac (Great Britain) and Richard Feynman and Julian Schwinger (both U.S.) have developed the modem theory of electromagnetic interaction between electrons (with the exchange of photons). (‘Inventions and Discoveries’)

First time speed of light was measured

The astronomer Jean Picard (France, 1620-82) of the Observatoire de Paris -- who was the first to measure the earth's diameter precisely -- had a young Dane, Olaus Romer, as his assistant. The latter carried out observations of the four large satellites of Jupiter discovered by Galileo some 70 years earlier. He measured the intervals of time between the successive eclipses of the satellites by Jupiter and noted that these were regularly shorter or longer depending on whether Jupiter and the earth were closer together or further apart in their respective orbits around the sun.

Romer understood that this phenomenon was due to delays in the light from Jupiter reaching earth. He then calculated that, to explain all these observations, light traveled at a speed of 186,400 miles per second. At last, after 2,000 years of controversy, it was established that light did not travel instantaneously, but has a finite and measurable speed. (‘Inventions and Discoveries’)

Synergy

In medicine, synergy is the "cooperative" action of two or more drugs, muscles, or organs. The term is applied especially to drugs whose combined action is more powerful than their simple effects added together.

If used in a business application, synergy means that teamwork will produce an overall better result than if each person within the group were working toward the same goal individually. However, the concept of group cohesion needs to be considered. Group cohesion is that property that is inferred from the number and strength of mutual positive attitudes among members of the group. As the group becomes more cohesive, its functioning is affected in a number of ways. First, the interactions and communication between members increase. Common goals, interests and small size all contribute to this. In addition, group member satisfaction increases as the group provides friendship and support against outside threats.

There are negative aspects of group cohesion that have an effect on group decision-making and hence on group effectiveness. There are two issues arising. The risky shift phenomenon is the tendency of a group to make decisions that are riskier than those that the group would have recommended individually. Group Polarisation is when individuals in a group begin by taking a moderate stance on an issue regarding a common value and, after having discussed it, end up taking a more extreme stance.

A second, potential negative consequence of group cohesion is group think. Group think is a mode of thinking that people engage in when they are deeply involved in cohesive group, when the members' striving for unanimity overrides their motivation to appraise realistically the alternative courses of action. (From Wikipedia and Encarta Encyclopedia)

Temperature Scales

Five different temperature scales are in use today:

(1) the Celsius scale, known also as the Centigrade scale,

(2) the Fahrenheit scale,

(3) the Kelvin scale,

(4) the Rankine scale, and

(5) the international thermodynamic temperature scale.

The Celsius scale, with a freezing point of 0° C and a boiling point of 100° C, is widely used throughout the world, particularly for scientific work, although it was superseded officially in 1950 by the international temperature scale. In the Fahrenheit scale, used in English-speaking countries for purposes other than scientific work and based on the mercury thermometer, the freezing point of water is defined as 32° F and the boiling point as 212° F (see Mercury). In the Kelvin scale, the most commonly used thermodynamic temperature scale, zero is defined as the absolute zero of temperature, that is, -273.15° C, or -459.67° F. Another scale employing absolute zero as its lowest point is the Rankine scale, in which each degree of temperature is equivalent to one degree on the Fahrenheit scale. The freezing point of water on the Rankine scale is 492° R, and the boiling point is 672° R.

In 1933 scientists of 31 nations adopted a new international temperature scale with additional fixed temperature points, based on the Kelvin scale and thermodynamic principles. The international scale is based on the property of electrical resistivity, with platinum wire as the standard for temperature between -190° and 660° C. Above 660° C, to the melting point of gold, 1063° C, a standard thermocouple, which is a device that measures temperature by the amount of voltage produced between two wires of different metals, is used; beyond this point temperatures are measured by the so-called optical pyrometer, which uses the intensity of light of a wavelength emitted by a hot body for the purpose. (Encarta Encyclopedia)