I started off here to write about time-travel communications but now I am worried again.
What worries me is that the effect isn't just about computer files I transfer to people in the past when I become a time-traveler.
Because I think the first time I do it is the only time. After that I am just jumping backwards and backwards into the past and I don't necessarily bring any documents with me.
Yes, but my time-traveler effect isn't just about documents. It is about information.
So that is what worries me. The transfer of information by means telepathic.
So as far as oscillations go I had a brief moment when I had a strong sense of the profound in my mind but now it has passed.
It's easier to comprehend what I call my time-traveler effect because the information that I suspect causes the time-travel effect is easily visible.
If the information in my mind causes the time-traveler effect then that is harder to comprehend because I don't really know very well how the brain works, although I have some good notions about how it works.
So in terms of oscillations then that concept is easier to comprehend in the information I am recording. That is how I came up with my so-called counter-paradox effect.
My counter-paradox effect is the result of information I transfer to the past when I am a time-traveler. Since I am not a robot then I know that I must have the equivalent thoughts form in my mind in this present time that produced the information I recorded. If I did not have those thoughts then how could I have recorded those details?
So the problem is that my thoughts are causing some kind of oscillations to how my life is affected by some kind of time-travel technology.
I have to figure out someway to make it stop so I can get control of it.
When I record in my journal about the duality of particles and waves and when I think that detail might be important to my invention of time-travel then that doesn't really mean anything.
All that matters is that I do invent time-travel and I have always invented time-travel and I have always been affected by my invention of time-travel.
JOURNAL ARCHIVE: From: Kerry Burgess
Sent: Friday, May 26, 2006 4:42 PM
To: Kerry Burgess
Subject: Re: Journal May 26, 2006
Kerry Burgess wrote:
the shocks failed on my blue truck and someone commented later he thought I was going to bounce off the road because the chassis was shaking so much from any pothole I hit. Another time something went wrong with the brakes and they were screeching incredibly loudly. I can think of a lot of things like that happening.
[JOURNAL ARCHIVE 26 May 2006 excerpt ends]
http://en.wikipedia.org/wiki/Damping
Damping
From Wikipedia, the free encyclopedia
In physics, damping is an effect that reduces the amplitude of oscillations in an oscillatory system, particularly the harmonic oscillator. This effect is linearly related to the velocity of the oscillations. This restriction leads to a linear differential equation of motion, and a simple analytic solution.
In mechanics, damping may be realized using a dashpot. This device uses the viscous drag of a fluid, such as oil, to provide a resistance that is related linearly to velocity.
http://en.wikipedia.org/wiki/Dashpot
Dashpot
From Wikipedia, the free encyclopedia
A dashpot is a mechanical device, a damper which resists motion via viscous friction. The resulting force is proportional to the velocity, but acts in the opposite direction, slowing the motion and absorbing energy. It is commonly used in conjunction with a spring (which acts to resist displacement).
Applications
A dashpot is a common component in a door closer to prevent it from slamming shut. A spring applies force to close the door and the dashpot, implemented by requiring fluid to flow through a narrow channel between reservoirs (often with a size adjustable by a screw), slows down the motion of the door.
Consumer electronics often use dashpots where it is undesirable for a media access door or control panel to suddenly pop open when the door latch is released. The dashpot slows the sudden movement down into a steady and gentle movement until the access door has opened all the way under spring tension.
Dashpots are commonly used in dampers and shock absorbers. The hydraulic cylinder in an automobile shock absorber is a dashpot.
http://en.wikipedia.org/wiki/Oscillation
Oscillation
From Wikipedia, the free encyclopedia
Oscillation is the repetitive variation, typically in time, of some measure about a central value (often a point of equilibrium) or between two or more different states. Familiar examples include a swinging pendulum and AC power.
Damped and driven oscillations
Main article: Harmonic oscillator
All real-world oscillator systems are thermodynamically irreversible. This means there are dissipative processes such as friction or electrical resistance which continually convert some of the energy stored in the oscillator into heat in the environment. This is called damping. Thus, oscillations tend to decay with time unless there is some net source of energy into the system. The simplest description of this decay process can be illustrated by oscillation decay of the harmonic oscillator.
In addition, an oscillating system may be subject to some external force, as when an AC circuit is connected to an outside power source. In this case the oscillation is said to be driven.
Some systems can be excited by energy transfer from the environment. This transfer typically occurs where systems are embedded in some fluid flow. For example, the phenomenon of flutter in aerodynamics occurs when an arbitrarily small displacement of an aircraft wing (from its equilibrium) results in an increase in the angle of attack of the wing on the air flow and a consequential increase in lift coefficient, leading to a still greater displacement. At sufficiently large displacements, the stiffness of the wing dominates to provide the restoring force that enables an oscillation.
http://en.wikipedia.org/wiki/LC_circuit
LC circuit
From Wikipedia, the free encyclopedia
An LC circuit, also called a resonant circuit or tuned circuit, consists of an inductor, represented by the letter L, and a capacitor, represented by the letter C. When connected together, they can act as an electrical resonator, an electrical analogue of a tuning fork, storing electrical energy oscillating at the circuit's resonant frequency.
LC circuits are used either for generating signals at a particular frequency, or picking out a signal at a particular frequency from a more complex signal. They are key components in many electronic devices, particularly radio equipment, used in circuits such as oscillators, filters, tuners and frequency mixers.
An LC circuit is an idealized model since it assumes there is no dissipation of energy due to resistance. For a model incorporating resistance see RLC circuit. The purpose of an LC circuit is to oscillate with minimal damping, and for this reason their resistance is made as low as possible.
Operation
An LC circuit can store electrical energy oscillating at its resonant frequency. A capacitor stores energy in the electric field between its plates, depending on the voltage across it, and an inductor stores energy in its magnetic field, depending on the current through it.
If a charged capacitor is connected across an inductor, charge will start to flow through the inductor, building up a magnetic field around it, and reducing the voltage on the capacitor. Eventually all the charge on the capacitor will be gone and the voltage across it will reach zero. However, the current will continue, because inductors resist changes in current, and energy to keep it flowing is extracted from the magnetic field, which will begin to decline. The current will begin to charge the capacitor with a voltage of opposite polarity to its original charge. When the magnetic field is completely dissipated the current will stop and the charge will again be stored in the capacitor, with the opposite polarity as before. Then the cycle will begin again, with the current flowing in the opposite direction through the inductor.
The charge flows back and forth between the plates of the capacitor, through the inductor. The energy oscillates back and forth between the capacitor and the inductor until (if not replenished by power from an external circuit) internal resistance makes the oscillations die out. Its action, known mathematically as a harmonic oscillator, is similar to a pendulum swinging back and forth, or water sloshing back and forth in a tank. For this reason the circuit is also called a tank circuit. The oscillation frequency is determined by the capacitance and inductance values used.
