Medical Diagnosis with Human Auras

Auric X-Rays In 1908, in the early days of X-ray technology in hospitals, Dr. Walter Kilner (1847–1920) observed the aura of his medical patients in London’s St. Thomas Hospital’s X-ray Department through colored screens made of thin, flat glass cells containing dicyanide dyes in an alcohol solution. The dicynanin coal-tar dye made observers temporarily short-sighted (like infants), which helped them more easily see ultra-violet spectrum radiation of the human energy field. Kilner described how the inner aura followed body contours, while the outer aura was larger and ovoid in shape. Kilner’s breakthrough discovery was that most of us can see auras when we change the focus of our eyes. Kilner’s findings prompted the development of “auraspecs“ and “kilnascrenes,“ which were patented and developed in the late 1920s by Harry Boddington, a noted British spiritualist. Prior to publishing his findings, Kilner viewed how the human aura varied considerably in appearance in more than sixty patients, yet people with infectious, psychological, and physical diseases consistently had areas of no aura or dark patches. Kilner noted that anger and intense behavior expanded the aura, while depression and poor health contracted it. Kilner’s book was favorably reviewed in the February 1921 issue of The Medical Times, and in the March 1922 issue of Scientific American magazine. [1] Human Hands Emit Light Human hands glow, and fingernails release the most light, according to a recent study that found all parts of the hand emit detectable levels of light. Not only our hands, but also our forehead and the bottoms of our feet emit photons. Mitsuo Hiramatsu, a scientist at the Central Research Laboratory at Hamamatsu Photonics in Japan, who led the research, suggested most living things, including plants, release light. Since disease and illness appear to affect the strength and pattern of the glow, the discovery might lead to less-invasive ways of diagnosing patients. Current Kirlian Research Current research around the world in many countries, including the United States and the Soviet Union is underway to better utilize aura readings in the form of Kirlian effect photographs for medical diagnosis. While smooth kirlian photographs generally indicate good health, jagged sections correspond to what aura readers the world over recognize as rough energy... unhealthy energy. Kirlian photographs have proven themselves to be indispensable for a wide variety of practical applications. They help engineers to identify structural defects, such as tiny impurities and cracks. They help food science engineers find ways to keep produce fresher longer. They even appear to show tremendous potential for detecting life-threatening illnesses in humans. Kirlian researcher Dr. Loan Dumitrescu scanned 6,000 Romanian industrial workers for cancer, and found a 100 percent success rate in detecting breast cancer early and 74 percent success in detecting all cases of malignant cancer. In three cases of sarcoma, the tumor was indicated in the electronographic image, and the corresponding X-ray photographs showed no indications of cancer. Equally impressive was the finding by P.S. Chouhan that coronal fingertip images for 246 patients with cervical cancer could be sorted readily into groups of varying severity of illness. Chouhan found increasing density in images as patients suffered from higher stages of cervical cancer, with stage four cancer patients having the densest images on their Kirlian photographs.[2] This is an area of research you will likely hear a great deal more about as the science of thermography really heats up (pardon the pun)… and we see more results from things such as SQUID technology. SQUID Imaging

John Clarke with High TC Superconducting Coil Deposited on a High TC SQUID

A few years ago I was thrilled to get a close-up look at research being done by physicists at UC Berkeley when I toured John Clarke’s famous superconducting quantum interference devices (SQUID) laboratories at the first-ever UC Berkeley alumni reunion in October 2003. Clarke had been one of my favorite instructors while I studied physics at UC Berkeley, with his charming British accent and his delightful way of illustrating even the most complicated ideas with real-world applications and examples. I was thrilled to get a chance to tour two of Clarke’s laboratories that are utilizing SQUIDs, and hear about the cutting-edge research that he and his team of graduate students are conducting with quantum bits and ultralow frequency magnetic imaging. SQUIDs may be the most sensitive measurement device known to man; composed of a superconducting loop with two Josephson junctions, SQUIDs are used to measure extremely small magnetic flux and magnetic fields. Clarke has used SQUIDs in many applications over the years, including detection of NMR signals at ultralow frequencies; geophysics; nondestructive evaluation of materials; biosensors; detection of dark matter; and observing “qubits“ for a potential quantum computer. And with all this new technology coming along, I can't help but wonder when we'll be seeing better images of our own energy bodies based on SQUID technology! ___________________ Notes: [1] Kilner, Walter J. The Human Aura. New Hyde Park, New York: University Books, 1965, pp. 1–300. [2] Gadsby, J. Gordon. “Kirlian Photography: Critical Analysis“ in Complementary Medical Research, vol. 5 (1), February 1991, pp. 523–528.