Monday, October 24, 2011
Monday, October 17, 2011
Why Few People Seldom Get Heart Cancer
Why Few People Seldom Get Heart Cancer
Considering all of the areas a person can get cancer, it makes you wonder why heart cancer is so rare. One interesting theory is that the heart is the most electrical organ in the human body. Heart cells have a voltage of 120 megavolts (mV) and, in some cases, a slightly higher voltage. This is almost twice the voltage of some other cells in the body.
Pulsed Electromagnetic Frequency (PEMF) acts as a “whole-body battery charger” by recharging each of the 70 trillion cells in your body. Though it’s impossible to charge your cells as high as the heart, we can raise the voltage of the cells in your body up 70 mV, or to 110 mV in the case of high-activity athletes. In most people, you can expect between 70 mV and 90 mV.
When your cells are sick, they lose energy. As a result, there is not enough ATP and your cells’ voltage drops to 40-50 mV. People that are sick potentially have voltages as low as 20 mV (in the case of cancer). Cancer cells typically have a voltage of 20 mV and are in fermentation, meaning they need 10 times more energy from the environment.
PEMF builds energy within your cells, oxygenating and alkalizing the cells. PEMF improves circulation so the conversion of nutrients and oxygen inside the body can occur at optimum performance. PEMF also increases the efficiency with which your body processes and expels waste matter and keeps your system running smoothly.
With physics being used for mainstream medicine, electricity has been used to treat glioblastoma. I prefer PEMF, but this news is the beginning of a new understanding in medicine about physics, which I predict will lead to many exciting things like NeuroStar TMS Therapy®. This NeuroStar system is FDA-approved and in use today at UCLA, Stanford and Yale, but so far only approved for unresponsive depression.
Many of those involved are probably unaware that PEMF devices are similar to the PAPIMI® NanoPulse Therapy device used in Greece to treat cancer. The FDA has approved the new NovoTTF (for tumor treating fields), that uses an electrical field to disrupt the division of cancer cells in the brain, and is being developed for use in patients with glioblastoma, although only after standard treatments fail. Even so, this is a major breakthrough! PEMF generates microelectric currents and magnetic fields, so it will do more than this newly approved treatment.
There is also another logical explanation for why PEMF is doing so much good for people. This involves an electric charge like the newly approved FDA device for brain cancer and turns on the body’s healing power. Now combine that with my FIGHT program, and be prepared for miraculous healing!
Source: http://www.greenlivingaz.com/?p=1440
http://papimiuk.blogspot.com
Nanopulses tweak the innards of cells
A method that would allow doctors to tweak the innards of cells without even touching a patient's body is being developed in the US and Greece..
The technique is still in its infancy, and it is still not clear exactly what it does to cells. But initial experiments suggest it might one day be possible to use the technique to treat cancer, speed up healing or even tackle obesity.
The method involves exposing cells to an extremely powerful electric field for very brief periods. "The effects of these pulses are fairly dramatic," says Tom Vernier of the University of Southern California in Los Angeles, who will present some of his team's results at a nanotechnology conference in Boston in March. "We see it as reaching into the cell and manipulating intracellular structures."
Applying electric pulses to cells is not new. In a technique called electroporation, electric fields that last hundreds of microseconds are applied to cells. The voltage charges the lipid molecules in the cell membrane, creating transient holes in the membrane. The method can be used to help get drugs or genes into cells.
Major physiological event
But the latest technique involves more powerful electric fields, with gradients of tens of megavolts per metre, applied for much shorter periods. These nanosecond-pulsed electric fields are too brief to generate an electric charge across the outer membrane of cells, but they do affect structures within cells.
One of the main effects seems to be calcium release from a cellular structure called the endoplasmic reticulum. "In a nanosecond, we cause this major physiological event in the cell," says Vernier. "It's completely indirect and remote, and it's an extremely rapid transition."
The nanopulses can also trigger cell suicide. Teams led by Vernier, Karl Schoenbach of Old Dominion University and Stephen Beebe of Eastern Virginia Medical School, both in Norfolk, Virginia, have shown that nanopulsing can kill tumour cells in culture.
The pulses do not just fry cells, but lead to changes such as the activation of enzymes called caspases, an early step in cell suicide. How the pulses do this is not clear, but Vernier says the effect is not related to calcium release.
Cell suicide
So could nanopulsing help treat cancer? In a preliminary test, Schoenbach and Beebe used needle-like electrodes to generate pulses near tumours in mice. Nanopulsing slowed the growth of tumours in four mice by 60 per cent compared with tumour growth in five untreated mice. The researchers hope that with better delivery systems they could make the tumours shrink.
Beebe's team has also found that the pulses can trigger suicide in the cells that give rise to fat cells, possibly opening up a new way of treating obesity, Beebe speculates.
And Vernier is working with doctors at the Cedars-Sinai Medical Center in Los Angeles to see if nanopulses can speed up the healing of wounds. "We do see an effect, but that's about all I can say now," he says.
The next step is to develop a way to deliver the pulses to cells and organs deep within the body. Theoretical models suggest that nanosecond pulses of broadband radio signals could do it. "An array of such antennas would create, through superposition of electric fields, a very high electric field right where we need it," says Schoenbach.
Source:
Anil Ananthaswamy, 06 February 04, New Scientist http://www.newscientist.com/news/news.jsp?id=ns99994635
http://papimiuk.blogspot.com
A method that would allow doctors to tweak the innards of cells without even touching a patient's body is being developed in the US and Greece..
The technique is still in its infancy, and it is still not clear exactly what it does to cells. But initial experiments suggest it might one day be possible to use the technique to treat cancer, speed up healing or even tackle obesity.
The method involves exposing cells to an extremely powerful electric field for very brief periods. "The effects of these pulses are fairly dramatic," says Tom Vernier of the University of Southern California in Los Angeles, who will present some of his team's results at a nanotechnology conference in Boston in March. "We see it as reaching into the cell and manipulating intracellular structures."
Applying electric pulses to cells is not new. In a technique called electroporation, electric fields that last hundreds of microseconds are applied to cells. The voltage charges the lipid molecules in the cell membrane, creating transient holes in the membrane. The method can be used to help get drugs or genes into cells.
Major physiological event
But the latest technique involves more powerful electric fields, with gradients of tens of megavolts per metre, applied for much shorter periods. These nanosecond-pulsed electric fields are too brief to generate an electric charge across the outer membrane of cells, but they do affect structures within cells.
One of the main effects seems to be calcium release from a cellular structure called the endoplasmic reticulum. "In a nanosecond, we cause this major physiological event in the cell," says Vernier. "It's completely indirect and remote, and it's an extremely rapid transition."
The nanopulses can also trigger cell suicide. Teams led by Vernier, Karl Schoenbach of Old Dominion University and Stephen Beebe of Eastern Virginia Medical School, both in Norfolk, Virginia, have shown that nanopulsing can kill tumour cells in culture.
The pulses do not just fry cells, but lead to changes such as the activation of enzymes called caspases, an early step in cell suicide. How the pulses do this is not clear, but Vernier says the effect is not related to calcium release.
Cell suicide
So could nanopulsing help treat cancer? In a preliminary test, Schoenbach and Beebe used needle-like electrodes to generate pulses near tumours in mice. Nanopulsing slowed the growth of tumours in four mice by 60 per cent compared with tumour growth in five untreated mice. The researchers hope that with better delivery systems they could make the tumours shrink.
Beebe's team has also found that the pulses can trigger suicide in the cells that give rise to fat cells, possibly opening up a new way of treating obesity, Beebe speculates.
And Vernier is working with doctors at the Cedars-Sinai Medical Center in Los Angeles to see if nanopulses can speed up the healing of wounds. "We do see an effect, but that's about all I can say now," he says.
The next step is to develop a way to deliver the pulses to cells and organs deep within the body. Theoretical models suggest that nanosecond pulses of broadband radio signals could do it. "An array of such antennas would create, through superposition of electric fields, a very high electric field right where we need it," says Schoenbach.
Source:
Anil Ananthaswamy, 06 February 04, New Scientist http://www.newscientist.com/news/news.jsp?id=ns99994635
http://papimiuk.blogspot.com
Friday, October 14, 2011
Electrical Nanopulses Might Kill Tumors
Killing cells affected by cancer while leaving healthy ones alone is not a new idea. But, in "Ultra-fast shocks scramble cells," Nature describes a new approach based on electrical nanopulses. These electric shocks last only a few billionths of a second while reaching during this very short amount of time power levels of terawatts. They also are very intriguing, apparently forcing cancer cells to commit suicide.
The technique involves blasting cells with nanopulses. These are high-power electrical bolts that last a few billionths of a second. They deliver millions of volts - enough power to light up a city, but each burst lasts much less than the blink of an eye.
Longer shocks blow a cell apart, but researchers have found that the fleeting nanopulses leave the cell membrane unaffected while mixing up its insides. Now they are working out how to vary the timing and intensity of the shocks to make cells behave in specific ways.
There is plenty to be worked out before the human body is zapped with nanopulses. James Weaver, who studies electrical effects in cells at the Massachusetts Institute of Technology, Boston, says they are at an early stage: "There are maybe ten papers published showing that something dramatic is happening."One puzzling aspect of this technique is the electric shocks are pushing cells to commit suicide. Scientists are not sure why.
One of the most significant discoveries was that nanopulses make mammalian cells commit suicide, rather than blowing them up. This is a relatively gentle way of killing, because scavenger cells come and swallow the debris. By contrast, long electric shocks explode cells and liberate toxic molecules that cause inflammation and pain.
For this reason, researchers hope to use nanopulses to kill cancer cells while leaving healthy tissue intact. Karl Schoenbach's team at the Center for Bioelectrics in Norfolk, Virginia, has already shown that the pulses can shrink mouse tumours by over 50%, and is working on catheters or non-invasive ways to deliver the shocks to the body.For more information about their research projects, you can look at this page or check this presentation (PDF format, 19 pages, 1.31 MB).
Source: Helen Pearson, Nature, March 16, 2004
Wednesday, October 12, 2011
The PAP IMI operating principle and mechanism of action
The PAPIMI device produces pulsed electromagnetic type ELF
(Extremely Low Frequency), also known as waves PEMF (Pulsed Electro
Magnetic Field). These waves, given their very short
duration (40-50 microseconds) do not heat the tissue and are able to
cross biological tissue up to 15 to 20 inches deep, thus favoring the
stimulation and regeneration because they act directly on the physiology
the cell.
The pulse is produced in a Plasma ROOM, located inside a solenoidal probe in concentric coils. The probe consists of a silicone tube containing air is circulated in which an electric current that turns the air into plasma. The
way that gets the electromagnetic pulse makes it 100% biocompatible,
because it is rich of typical frequencies of the constituent elements of
air and the necessities of life, such as oxygen and nitrogen.
Figure 1 Membrane potential
The PAPIMI device is used to reactivate the cell physiology in all
pathologies osteo-articular muscle and nerve, and also eliminates the
pain.
The pain is usually
caused by trauma, injuries and accidents of various kinds that
determine tissue degeneration, inflammation and, therefore, pain. The
multiplicity of agents damaging the body responds with a unique defense
mechanism, inflammation, and repair the injured tissue activates
mechanisms more or less specific. At the cellular level,
the inflammatory state leads to a lowering of the membrane potential
which, in turn, causes a reduction of the normal activity of the cell
involved, and a reduction of its metabolism.
Reduces the normal transfer
of nutrients from outside, through the specific mechanisms of exchange,
which, first of all, the sodium potassium pump, and reduces the
elimination of waste substances toxic to the cell. Gradually,
the cell becomes depleted of oxygen, is enriched with toxins, and so is
less than the production of ATP (adenine triphosphate).
Figure 2
The diagram shows the relationship between the concentration inside the
cell Na + ions and the potential trans-membrane associated, since they
are related to the health status of the cell. The device Papimi ® increases the TMP (Trans Membrane Potential) and decreases Natremia (concentration of Na-).
All cellular
functions depend on the continued availability of energy derived from
catabolism of organic molecules during the process of cellular
respiration, the energy released is stored in the form of molecules of
ATP (adenosine triphosphate). ATP is the energy reserves, readily available for all metabolic functions of the cell.
The electromagnetic field
generated by the device PAP IMI device is to act
directly at the cellular level, exploiting the natural ability of
biological structures interact with electromagnetic fields. It
is essentially to create resonances, as is now known, each substance
has its own characteristic electromagnetic spectrum, and any substance
interacts with electromagnetic waves is so non-specific (for example
through the transfer of energy) and specifically (interactions based on
the particular resonance frequency range).
Figure 3
The diagram shows the relationship between the concentration of
intracellular K + and Na + ions, since they are connected to the
trans-membrane potential and health status of the cells. The
device Papimi ® pushes the curve from the area in the lower right to
upper left area, where he represented the condition of young and healthy
cells.
The membrane potential has a close relationship with the state of health of the cells. Under
physiological conditions this potential assumes a certain value which,
depending on the type of cell is between -70 and -90 mV. This potential must be kept constant because the cell remains in physiology.
So happens that, for
certain frequencies, the wave emitted by the device is able to interact,
resonating with the electromagnetic field produced by the cell. In addition, the cell membrane, by its very nature, conveys well the electromagnetic field.
The effect of
electromagnetic pulse has features that allow you to restore the
membrane potential, altered by the pathological state. Moreover,
precisely due to its composition, the wave penetrates into the cell by
stimulating mitochondrial activity, cellular respiration and ATP
production.
Therefore, at the cellular
level, it has a dual effect: stimulation of bio-electric nature, because
it restores the normal membrane potential was altered by the disease,
and stimulation of natural bio-chemistry, because the impulse is able to
penetrate inside the cell, which is to restore the physiology.
Wednesday, October 5, 2011
Accelerated Treatment of Ankle Sprains
ACCELERATED TREATMENT OF ANKLE SPRAIN BY
APPLYING PAPIMI 600P BIOMAGNETIC GENERATOR, WITH CRYOTHERAPY AND PHYSICAL EXERCISES FOR
FOOTBALL PLAYERS.
BY
HOMIROS EMMANOUILIDIS
Medical Doctor for Sports Injuries 104 Kifisias Ave, Athens, Greece tel.:+301-6984321.
Summary
In the present report, we show a method we developed by applying the PAP
IMI Device - Bio Pulse Generator, for professional football players with ankle sprain, the
time of recovery for the injured players is significantly reduced. The method allows the
players to come back to their athletic obligations, in a significantly shorter time, which
is usually before their next athletic meeting or activity.(Short presentation is given below)
INTRODUCTION
The ankle arthrosis as well as the knee arthrosis are those that are
exposed to the biggest danger in a football match.The reasons, which create sprains of the ankle, are due to the direct contact with the opponent, due to wrong balance during racing on rough surface or even due to a loose arthrosis. Football players usually during their training, but, mainly at the matches, back up their arthrosis with bandage or with self-adhesive elastic bandages using the appropriate fascia. The goal of this research is to reduce the time of return to the match for professional football player that was subject to an automatic second grade sprain or after direct contact with an opponent had a second grade sprain. Sprain is the partial or the full brake of the fiber of one joint and particularly of their outer portions, more specifically at the front portion which is known as the perone ankle joint. It is an injury of resupination, adduction and is mainly due to the anatomy of the foot end, because the internal melleolus is shorter than the exterior melleolus and the arthrosis is less supported during an ectropic (with the foot inwards) injury, forcing the outer sprain to accept all the weight of the load. Fewer times the opposite is happening - ectropia (with the foot outwards) affecting in that way the outer elements of the ankle. The sprains are distinguished according to that gravity of the injury: a) to the first grade or light sprain, b) to the second grade or heavy sprain with full joint rhexis, c) third grade with full rhexis which concerns the medium of the joint, which may have the form of detachment either from the gemma or from the sertion, either with or without osteal fragma. With the rhexis of the conjunction, rhexis of the synovial bursa occurs. Rhexis alone of the peroneal joint of the leg if not treated on time, it may end to instability of the arthrosis. The same is true for the rhexis alone of the outer later jont which can end to relapse sprain of the ankle , which implies astasia of the arthrosis and it may end to possible degenerative arthritis. The active athlete after an injury has to terminate immediately the athletic activity and should undertake medical and radiological check ups in order to determine the gravity of the sprain. Clinically after some hours, the arthrosis is characterized by a huge edema as well as by a huge hematoma. After such injury, intense pain and walking inability occurs. For the second grade of sprain the proposed treatment is as following:
For our pilot research we finally selected 20 football players who had second grade sprain, either automatic or because of an "opponents’ contact". Clinically the injured players under our study, presented a tense edema and hematoma. The x-rays analysis was negative for fracture. For 3 occasions that was determined necessary they were examined under "static movement" check up, which resulted negative for a fully break of the joint.
METHOD
The ankle was immobilized with “Air castle splint" and cold
compresses were applied for 24 hours. The second 24 hours they received treatments with a
PAP-IMI 600P Magnetic Pulser Device. The PAPIMI treatments were twice every morning as
well as every evening for 20 minutes’ duration each.The device produces:
The same day, they started special reinforcement exercises for the ankle.
RESULTS
60% of the football players recovered completely the 6th
day and returned to their athletic obligations.Recovery reduction time was down to 30%. 30% of the football players recovered the 8th day after the injury. Recovery reduction time was down to 44%. 10 % of the football players were feeling annoyance at the 10th day. In this case, the two players remaining (20x10%=2) recovered the 13th and 14th day accordingly. Recovery reduction time was down to 75%. Pharmaceutical treatment was not given at all. Conclusively: We have proven that the method -by applying the PAP IMI Device - Bio Pulse Generator - for football players with second grade sprain of the ankle, the time of recovery was significantly reduced and allowed the players to come back to their athletic activities in a much shorter time and before the next weekly match.
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Notice 1. We have distinguished the injuries in four different categories
http://papimiuk.blogspot.com |
Application Of The PAPIMI Device On Plants - Comparison Results
COMPARISON RESULTS
Exposed Plants with twin Plants Non Exposed
for about 10 minutes exposures every other day
Exposed Plants with twin Plants Non Exposed
for about 10 minutes exposures every other day
Experiments carried by Nick Vavlis
19, Maggnisias Street, Nea Smyrna, (Athens), Greece, 17121
Tel.: +301-9324370
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More pictures will be posted as the experiments progress.
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19, Maggnisias Street, Nea Smyrna, (Athens), Greece, 17121
Tel.: +301-9324370
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More pictures will be posted as the experiments progress.
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CONCLUSION
All Plants exposed to PAP IMI pulses grow significantly faster in comparison to twin non exposed plants. |
Sowing Beans after one Month
COMPARISON RESULTS
Seeds watered by "activated" pure water
by 5 minutes PAP IMI exposures,
Seeds watered with pure water - not activated.
Seeds watered by "activated" pure water
by 5 minutes PAP IMI exposures,
Seeds watered with pure water - not activated.
Activating water in a jar with PAP IMI Probe for watering seeds. |
Activating water in a cup with PAP IMI
Probe for watering seeds.
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Beans 7 Day
1. Watered with Activated water. 2. Watered with Non Activated water. |
Beans 7 Day
1. Watered with Non Activated Pure Water. 2. Watered with Activated Pure Water |
Lentis 6 Day
1. Watered with Activated Pure Water. Stays clear. 2. Watered with Non Activated Pure Water. Gets rotten. |
Hard Wheat 6
Day
1. Watered with Activated Pure Water. It never gets rotten. 2. Watered with Non Activated Pure Water. It gets rotten by the 13th day. |
Lentils
27 Day
1. Watered with Non Activated Pure Water. Finally, both seeds develop at the same hight. 2. Watered with Activated Pure Water. Much Harder, slightly taller, and developed much quicker. |
Seeds watered with activated
pure water grow faster and taller.
Seeds watered with activated water tend to
get rotten and to develop parasites, significantly less, compared to the seeds watered
with non exposed pure water.
APPLICATION OF THE PAPIMI DEVICE
IN PLANTS.
IN PLANTS.
PAP IMI device has unbelievable
results in the growth of plants and seeds. Bibligraphy has references to similar cases in
growing of plants using magnetic pulses. The results as well as previous evidences, were
not always replicable, and some results failed to work in practical applications. On the
contrary the results of the PAP IMI device in plants are replicable and significant, as
this is proved in related research by the Agriculture University of Athens. In addition
there did not appear any genetic anomalies, toxicity or harm in the exposed plants, on the
contrary it proved to be very effective in speeding up the growth of plants, even under
unfavorable conditions that did not surpass the expected mainsail growth of the plants.
Related results have also been found for three years in succession by the Papnikolau Institute of the Hospital Saint,
Savva, in small animals that grew up and multiplied to serial
generations, without genetic or other anomalies.
The
Agriculture University of Athens continues the research on practical application with the
PAP IMI device in the grouth of plants and seeds. Related dissertations are the most
elaborate cooperation with the Educational
and Technologic Institute of Pirea.
Below
are shown photos of experiments on the grouth of plants and seeds using the PAP IMI
device. Each experiment lasts for about 5 minutes to 1 hour.
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Source : www.papimi.gr
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