Hi soiledsystem
Thanks for the input on this matter with a different perspective. There was a similar thread on the benefits of rife frequency and other freq at different wavelengths via utube videos. Don't think it helped anyone.
BUT, there was a member who said that he benefited from magnetic pulsing. There's a lot of research papers discussing the magnetic ad silver pulsing uses. It could target the harmful pathogens in our brain and body without causing us harm. Don't know about ultrasound devices? Any link to the stuff u brought ?
You are right. PATM being transferred through phones and through walls tells us that PATM could be a problem caused by sound waves. Please let us know your results on using the ultrasound therapy.
«In order to propagate the soundwaves, a second pathogen is needed to "broadcast" it. I believe there is some sort of virus that attacks the nerves in the skin/scalp and uses nerves' electrical impulses to "broadcast" the sound waves. So, there is a separate electrical component to this, but the soundwaves are the primary means of causing "attacks" i.e. PATM on people. The soundwaves may jar peoples' mucous membranes, causing the sensation of needing to clear throat/cough, etc. »
Yes, something can affect our nerves. These pulses can cause spasms
Possible we have spasms and the violation of the rhythms of organs. The rhythms of the bodies of other people begin to get synchronization with the violation of the rhythms of our bodies. As synchronization of the flickering of fireflies.
It is not clear this synchronization happens with the help of which. Signals, vibrations are transmitted acoustically, or field. Or smell. Method of signal transmission is not yet known. But the processing is done by synchronization of neural networks.
I have a hypothesis that we emitted vibration. Sound and others. As the crunch of the joints or vertebrae. But in another, not the audible range. Vibration heat emboss smell out of the clothes. It can be not only clothes, but also from the walls. Vibrations and shake. Vibrating smell. It might just be the harmonics of the vibrations. The type of difference between the electronic and valve amplifier.
Synchronization of neural networks through vibrations and waves. All can be represented as a particle or as a wave.
There are still electrical signals between the biofilms.
Physically separated bacteria could exchange information, according to Professor Alan Parsons and Dr. Richard Heal of the QinetiQ ltd Research Center (Great Britain).
American researchers of univercity of california have developed a method to grow bacteria that incorporate microscopic solar panels into their bodies. These mutant organisms will be used to produce fuels and plastics by mimicking the phenomenon of natural photosynthesis
Dr. Luc Montagnier and five other researchers published on December 23, 2010 a paper entitled "DNA waves and water" abstract: Some bacterial and viral DNA sequences induce low frequency electromagnetic waves in high aqueous dilutions
On a site (chaturbate) of live showcam I have everybody this scratching this touch the head cough eternally but mostly scratching or rubbing the face etc.
. Luc Montagnier and five other researchers published on December 23, 2010 a paper entitled "DNA waves and water" abstract: Some bacterial and viral DNA sequences induce low frequency electromagnetic waves in high aqueous dilutions
Physically separated bacteria could exchange information, according to Professor Alan Parsons and Dr. Richard Heal of the QinetiQ ltd Research Center (Great Britain).
American researchers of univercity of california have developed a method to grow bacteria that incorporate microscopic solar panels into their bodies. These mutant organisms will be used to produce fuels and plastics by mimicking the phenomenon of natural photosynthesis
Sound is vibration, i.e., periodic mechanical perturbation in elastic media – gaseous, liquid and solid. Such outrage, which represents a physical change in the environment (e.g., change density or pressure, the displacement of particles), distributed in the form of sound waves. The sound can be inaudible, if its frequency is outside the sensitivity of the human ear, or it applies in this environment as a rigid body, which may not have direct contact with the ear, or its energy dissipates rapidly in the environment. Thus, a common process of sound perception – is only one aspect of acoustics.
The human ear perceives the sound wave length from about 20 m to 1.6 cm, which corresponds to 16 — 20 000 Hz (cycles per second) in the transmission of vibrations through the air, and up to 220 kHz when sound transmission through the bones of the skull. These waves have important biological significance, for example, sound waves in the range of 300-4000 Hz correspond to the human voice. Sounds above 20,000 Hz are of little practical value, as rapidly inhibited; vibration below 60 Hz are perceived due to vibration sense. The frequency range that can hear, called the hearing or audible range; higher frequencies are called ultrasound, and the lower — infrasound.
The ability to discern audio frequencies strongly depends on the individual: his age, sex, exposure to auditory diseases, fitness and fatigue of hearing. Individuals are able to perceive sounds up to 22 kHz, or even higher.
People can distinguish several sounds at the same time due to the fact that the cochlea can be some standing waves.
The human ear perceives the sound wave length from about 20 m to 1.6 cm, which corresponds to 16 — 20 000 Hz (cycles per second) in the transmission of vibrations through the air, and up to 220 kHz when sound transmission through the bones of the skull. These waves have important biological significance, for example, sound waves in the range of 300-4000 Hz correspond to the human voice. Sounds above 20,000 Hz are of little practical value, as rapidly inhibited; vibration below 60 Hz are perceived due to vibration sense. The frequency range that can hear, called the hearing or audible range; higher frequencies are called ultrasound, and the lower — infrasound.
The ability to discern audio frequencies strongly depends on the individual: his age, sex, exposure to auditory diseases, fitness and fatigue of hearing. Individuals are able to perceive sounds up to 22 kHz, or even higher.
People can distinguish several sounds at the same time due to the fact that the cochlea can be some standing waves.
Scientists explain in more detail how we hear via bones in the skull
by Colin Smith
09 July 2014
Scientists can now more fully explain how we perceive sounds when they travel through our skull.
Humans have two ways of perceiving sound. The first involves the well-known process of sound vibrations travelling through the middle ear to the inner ear, which is where they are transmitted to the brain. The other relies on sound being conducted through bones in the skull, a process known as bone conduction, which has been poorly understood until recently.
Now researchers from Imperial College London and the Max Planck Institute for Brain Research in Germany have developed a model that more clearly explains how bone conduction works. The team says that understanding this process could pave the way for future clinical and industrial applications involving improvements in a range of technologies that use bone conduction to transmit sound.
The research is published in the journal Nature Communications.
Dr Tobias Reichenbach, from the Department of Bioengineering at Imperial College London, says: “The ear is an important organ for helping us to perceive the world around us. Most people may not realise that our skull also transmits sound to our brain. Many companies such as Google are beginning to exploit bone conduction as a way of sending sounds to our brain via wearable interactive technologies such as Google Glass. However, until recently we really haven’t had a clear picture about how bone conduction works. Our study describes the process in more detail, which could help manufacturers find better ways of harnessing bone conduction to deliver higher quality sound.”
In the new study, the team describes how sound, transmitted as vibrations through the skull, travels to the temporal bone, which is situated at the sides and base of the skull. The temporal bone transmits the vibrations to the basilar membrane in the inner ear and tiny bundles of hair, each finely tuned to detect sounds at different frequencies, transmit the vibrations to the brain for decoding.
Dr Reichenbach adds: “Many of us cringe when we play back a recording of our own voice. This is because we perceive our voice differently to how others hear it. Interestingly, bone conduction plays a role in how we recognise our voice. This is because the process is more effective at transmitting lower frequency sounds to the brain, which means that we perceive our voice as being deeper than what it is.”
A potential clinical application for the team’s research is the development of better tests to determine hearing impairments in newborn babies and children. Currently, doctors carry out a simple, non-invasive examination using a microphone that they insert in the ear canal to record sounds called otoacoustic emissions. These sounds are generated by the inner ear and they are a sign of healthy hearing. However, it has been unclear how these sounds are generated. The new research shows that otoacoustic emissions can involve bone conduction, which could enable doctors to fine-tune their method and improve the way they detect hearing defects.
An industrial application for the research could involve finding better ways to harness bone conduction to deliver sounds via new technologies. Headphones, hearing aids and internet-based interactive technologies such as Google Glass are being developed by engineers to deliver sound via bone conduction. Such technologies could potentially deliver higher quality sounds without blocking the ear passage. However, one of the current challenges for engineers is delivering sounds at higher frequencies. Understanding the underlying principles of bone conduction could lead to improvements in the way that technologies transmit sound through bone.
The team is currently seeking to develop new partnerships with manufacturers.
Article text © 2017 Imperial College London.
i m p e r i a l . a c . u k
hi soiledsystem. what happened with this sound wave theory?