Clifford Carnicom summarizes the findings on Morgellons and outlines eleven different aspects of the phenomenon that is worth further investigation.
This paper discusses the Carnicom Institute's acquisition of a Beckman dual-beam spectrophotometer, and how this acquisition allowed for the spectral analysis of environmental filament samples and those associated with the Morgellon's condition are of one and the same nature. This association has given rise to Carnicom calling these events "the worst crime in human history".
Through testing of this spectrophotometer (several spectral analyses are shown on this page), Carnicom was able to verify its reliability and accuracy and usefulness in performing spectral analyses of various things, such as blood, copper sulfate, and environmental fiber samples. The fiber samples that Carnicom had sent to the United States Environmental Protection Agency (EPA) and other human oral filament samples that are representative of, and characteristic of, the so-called "Morgellons" condition.
The spectral analyses of both of these samples is identical, which again, allows for the claim to be made that The conclusion drawn from this particular research is that the nature of a repeatedly occurring environmental filament sample is identical in nature to that filament entity which is representative and characteristic of the "Morgellons" condition. This equality in nature has now been established unequivocally through three different methods: visually, metrically, and analytically.
As such, at least one source of the Morgellons condition has been identified and it is a repeating environmental source. It is now up to us as the inhabitants and stewards of this planet to comprehend the consequences and the significance of the conclusions herein.
A continuing discussion of the characteristics of filament samples discovered by Clifford Carnicom and others is presented here. It is reiterated that an environmental source, at least in part, for specific biological organisms that are under scrutiny in association with the so-called "Morgellons" condition, has been identified. This source is the unusual airborne filament sample that was sent in June of 2000 to the Administrator of the United States Environmental Protection Agency (EPA) for identification on behalf of the public welfare. This particular and same sample that was sent to the EPA has been successfully cultured and reproduced, and the culture growth exhibits the identical biological organisms, structure and chemistry of certain biological filaments that are under extensive study in association with the Morgellons condition.
The different cultured structures discussed above are described and pictured within this work as well. They are:
1) An encasing filament structure (containing an internal network of sub-micron filaments)
2) A chlamydia-like organism (Chlamydia pneumonia)
3) A pleomorphic form (Mycoplasma-like)
4) An erythrocytic form (red blood cell).
The details of the Global Warming Model are presented on this page.
A series of highly unusual reports of red rain falling in parts of India starting in 2001 and lasting roughly two months prompted Clifford Carnicom to try to contact university members at the Mahatma Ghandi University in that country. Both attempts at contacting the University failed as undeliverable. This paper contains a link to an article describing the red particles contained in the red rain itself, as well as work done by Godfrey Louis and A. Santhosh Kumar, who wrote papers about this topic of red rain. Various attempts at explaining how these particles got into the rain are discussed, with some scientists believing a previous meteor shower could have deposited the particles in the atmosphere, which is called panspermia. As far as the particles themselves, they have the following intriguing, yet alarming, characteristics ascribed to them: These particles have much similarity with biological (red blood) cells though they are devoid of DNA. The particles can grow if placed in extreme heat and reproduce, even though the particles seem to lack a nucleus and DNA for reproduction. The particles look like one-celled organisms and are about 4 to 10 thousandths of a millimeter wide, somewhat larger than typical bacteria. Even after storage in the original rainwater at room temperature without any preservative for about four years, no decay or discoloration of the particles could be found.
Stories of three different scenarios where testing laboratories terminated services for those seeking knowledge of the makeup of samples sent to them are told in this paper. One was for a concerned citizen who had a rainwater sample tested, and had sent the results to Clifford Carnicom, which were published on the Carnicom website. After publication, this particular lab refused to do further testing for this individual, and gave no indication as to why they had made such a decision. Carnicom himself had a similar situation occur when he had an atmospheric fiber sample tested by a different lab...services were terminated when the results of the lab report were challenged and refuted in a personal visit by this Carnicom. Upon making the first two of nine contradictions known to the principal of that company, this owner stated that "this discussion is now over".
A third encounter happened when the career of a state criminal forensic scientist was threatened when an interest was expressed by that individual to assist in the identification of a certain atmospheric fibrous sample. It was stated in that case that the career of that individual and all post-retirement benefits of the forensicist would be terminated if any involvement in identification were to take place. The act of laboratory identification was never completed.
It is thought that the graph shown on this page may well be at the core of the aerosol operations. This graph shows direct ion measurements in combination with historical humidity data during the past month. The graph shows what appear to be highly favored conditions for the conduct of the aerosol operations or the transport of aerosol banks within a region. Aerosol operations are being staged at specific times of low humidity and low negative ion count. These two tenets, that of humidity association and ionic manipulation, have been at the foundation of the aerosol research since the early days of investigation. It seems quite fair to state at this stage that the balances of nature are being upset with artificial methods that threaten the viability of life on this planet. A very general interpretation of the current data can be made as follows: Low humidity is a period of relatively low moisture in the atmosphere. A low negative ion count is also generally indicative of lower moisture levels in the atmosphere. The research indicates that both of these variables, taken together, serve to indicate likely periods of aircraft aerosol or aerosol bank operations. This finding may appear to be in contradiction to the humidity conditions that have been associated with the operations, but in reality they are not contradictory in any fashion.
On this page, Clifford Carnicom explores the distinct possibility that observed and measured saline stress on plants and trees in the southwest United States is coming from the metals and salts being found in the aerosols that are continuing to be researched. This paper raises some questions that deserve fair consideration with respect to the massive global effects from the aerosol operations on observed plant and tree die-offs.
Discussed here are some observed plant and tree die-offs in the southwest U.S. starting around the beginning of 1999, when the aerosol operations began to be observed en masse in this area. As well, ground conductivity testing at various altitudes is detailed from further Carnicom research around this same time. One of the die-off discussions centers on the local grasslands in the extremely dry southwest. A second discussion ensues regarding the major die-off of the Pinyon Pines species in this same area. Though there are current theories to explain these situations, the salination of the soils appears to be a main cause. Conductivity readings (and correspondingly, ion concentrations) seem especially high in these areas of die-off.
It has already been reported in previous Carnicom papers that the expected effect from the introduced aerosols is to heat up the lower atmosphere, and not to cool it as many have attempted to promote under the guise of a secret but benevolent motive. Under the best of circumstances it can only be determined that the aerosols will aggravate the drought and warming problems, if not actually induce these very conditions. Reduced forage productivity is already expected in part from the specific heat and desiccation properties of the aerosols.
Clifford Carnicom discusses a series of conductivity tests conducted on recent heavy snowfall samples collected in New Mexico and Arizona in 2005, which have refocused attention on the electrolytic, ionic and conductive properties of environmental samples in connection with the aerosol operations. This report has been received and documents unusually high levels of calcium and potassium within a rain sample, where previous work has demonstrated unexpected levels of barium and magnesium.
Discussion in this work ensues and outlines conductivity testing on these samples, where conductivity is a means to measure the ionic concentration within a solution. Conductivity is proportional to ionic concentration, and the results of this testing shows the increased conductivity of the atmosphere from having these salts dispersed in the aerosol operations. This discussion also describes the difficulty of performing conductivity testing because of the concept of 'ohmic heating', extrapolates the testing results to calculate the volume of these ionic salts within the regional atmosphere, and considerations to what the implications are of having these elements in our air, land and water.
A laboratory analysis of a rainwater sample from a rural location in the midwestern U.S. has been received by Clifford Carnicom, and reveals extremely high levels of potassium and calcium within the sample. Examination of the aerosol issue has, almost from the beginning, focused on the important properties of such elements of Groups I and II of the periodic table. The attention has arisen because of the ease by which such elements are ionized. This ionization will take place in the majority of cases quite readily with the energy available from ultra-violet light and, in some cases, from visible light alone. Candidates for further and future testing, include strontium, aluminum and titanium. A partial list of the effects of ion disturbances upon human health are discussed in this work, and include Impairment of the body's ability to absorb oxygen, the development of allergies, high levels of serotonin in the bloodstream, and a reduction in the body's ability to filter airborne contaminants from lung tissue. Direct research from this site alone now documents unexpected levels of calcium, magnesium, potassium and barium. The acquisition of an ion counter will be a valuable instrument to further this research; if anyone is in a position to provide or loan this device please feel free to contact Clifford Carnicom.
A report from an independent consultant sent to a woman who had sent along three separate samples to be analyzed are attached on this page. The analysis report sent to this woman details proof that the samples contain metals and other elements that are known to be used in aerosol programs. The breakdown of the levels of contamination are attached to this page.
This work shows a visual/pictorial comparison of four different water solutions that a citizen sent in to the Carnicom Institute. The four solutions are 1) colloidal silver in water, 2) rainwater from Diamond Springs, CA from 1-27-2002, 3) tap water, and 4) distilled water. This person used a laser beam to illuminate the particles of metal in the solution, with the tap water and distilled water used for comparison purposes. The colloidal silver and the rainwater shine much brighter than the tap and distilled water, with brightness associated with the amount of metals in the water solutions.