Sorry for the delay in responding, Sofi... it's been a busy week.
Originally posted by soficrowByrd - Inconsistencies and apparent contradictions in the language used to describe
"electromagnetism in biological systems" does not result from a lack of scientific rigor. There are several reasons why the language is
inconsistent: the study spans several disciplines, and each discipline has its own vocabulary;
also, studying and describing the biological effects of electromagnetism - or anything related to electropollution - is "discouraged" in our
economy.
Sofi, I don't think the source of your information has ever actually worked as a researcher in ANY discipline.
Let me speak as a researcher who is doing research in a multidisciplinary field (museum studies and anthropology) and who is setting up a project
that's even MORE multidisciplinary (physical rehabilitation, anthropology, and engineering.) The very FIRST thing a researcher does is read up on
the literature, which means you become familiar with the terms in the other field and how they're used.
In thinking about body attitudes of people who have suddenly become disabled, I don't simply wander around and make up terms such as
"physio-borged" to describe how they relate to their prosthesis. That would indicate that I hadn't bothered to read up on what other research had
been done that might relate to this study.
For example, in this article about electromagnetic shock effects in cells is by a group of physicians and pathologists and you can clearly see in the
abstract that they are using terms that any physicist or anyone familiar with electronics would understand. They haven't developed a "special
language" and the terms are consistant across disciplines.
www3.interscience.wiley.com...
Now... laymen doing "lay research" (not hands-on, IRB approved, double-blind studies, but simply reading up on some things and thinking about them
and drawing conclusions) may indeed make up terms. I see this all the time.
One of the lines in that quote you gave suggests that you've gotten information from a lay researcher site -- one that is compiling information from
news sources (which may not be checked) and a tiny number of articles (I will typically scan 300 articles for one project and select out 20-50 for a
more extensive reading.)
It was this that made me think that Ms Patrick, whose work you are citing, is simply a lay-researcher and has not done any real work in the field.
More to the point, research on electromagnetism in biological systems is fraught with career-killing landmines, and governed by unwritten
economic-political policies.
Those physiologists and the others who wrote the 5700+ papers in this scholar.google.com search sure didn't end up with their careers being
killed:
scholar.google.com...
...Newly created sources of electromagnetic fields and radiation are a significant part of our developed world, and industry - and create what
is called "electropollution" or "electrosmog." So describing exactly what the effects of electromagnetic pollution are on biological systems is
threatening to the economy.
Ms. Patrick really isn't up to speed on this one. You see, research on the impact of these electromagnetic fields and the impact on cites and people
has been going on since the 1960's at least. That was one of the things we discussed (in long, stoned-out conversations.) When installing computer
systems in the 1980's, we techs were aware of electromagnetic fields because nearby power lines would cause monitors to have problems.
..This state of affairs has created numerous conflicts of interest in the scientific-military-industrial complex. In consequence, scientists
have difficulty finding the funds to research electromagnetism in biological systems. Publishing negative results publicly is verboten, and guaranteed
to extinguish even the most established star.
Ms Patrick also didn't bother to check and find out that in the past 8 years, more than 6,700 grant-funded research projects have been done, and that
large governmental organizations such as the National Institute of Health have approved funding for research on health problems and
electromagnetism.
scholar.google.com...
The fact that the authors' careers survived a first publication in scientific journals and they went on to do other supporting work in the field and
at the same university leads me to believe that Ms. Patrick's conclusions are based on something she was told by someone who simply made up facts.
Interestingly, many chemical reactions seen in biology are "forbidden" according to the laws of quantum mechanics. The key to understanding
these 'forbidden chemical reactions' - and protein folding, molecular formation, and the like in non-living systems - lies in unravelling the
"mystery" of how electromagnetism works in biological systems at the atomic level.
Eh, not so much "forbidden" as "not understood how they work." The recent article you cited about the spin wthin electrons having an impact on
certain chemical reactions is an excellent one, and should produce some groundbreaking research and a possible Nobel Prize in the future.
NOTE: I am not saying that all mutation results directly from electropollution. I am saying that electropollution has become a critical
component in the complex system that is our ecosphere, and has indirect effects on biological systems.
I think some careful sorting and reading through old science literature is needful, here. For instance, shielding methods in cables have changed over
time, and so the amount of electromagentic radiation in the environment has changed in many subtle ways.
Remember that "mad cow disease" (prion diseases) are not new and in fact have been present (scapies) for centuries.
May I suggest that you trim things down from a global perspective (because you don't have the computer power -- no one does -- to account for ALL the
environmental and genetic variables across the globe) and focus on a more grasp-able arena as a start (homes in a rural setting pre 1970 versus post
1970) and look into building code changes and sewage/dump law changes and other things that can impact the whole situation.
With a broad scope, you may jump on the wrong cause-and-effect and miss the real markers.