Exercise: Meditative Posture

Reference: A Scientific Approach to Meditation

Meditation Exercise:

Meditative Posture

Purpose:

To determine the optimum meditative posture.

Pre-requisite:

Complete Section I–Study.

Instructions:

Find a quiet location, where you may sit undisturbed for some time. Check out both the lotus posture, and the posture of sitting in a chair. Use cushions as necessary to stabilize the posture.

Continue in each posture for at least 5 minutes. Set an alarm to indicate the end of that period. Observe the body without interfering with the posture. You may become aware of physical reaction of discomfort as the body settles down. Differentiate such reactions from discomfort caused by the posture. Adjust your posture as necessary.

Observe the following points:
(1) This posture comes naturally to you.
(2) You can be comfortable in this posture for a long time.
(3) Your mind can remain alert in this posture.
(4) This posture keeps the body erect even without attention.

Decide upon the posture most practical for you. Maintain that posture for at least twenty minutes. Keep your attention extroverted on the meditative posture. Simply follow the basics of meditation.

You may repeat this exercise as many times as you wish until you are fully satisfied with your meditative posture.

End of Exercise:

When you can BE there comfortably without being distracted by the meditative posture, this exercise is passed.

NOTE: If you find the sitting meditation difficult to do then do the walking meditation exercises. You may then come back to this exercise.

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Preface: Physics Book (old)

See UNIVERSE: Basic Definitions

It has been a while since any major contribution has been made to physical sciences in terms of fundamental theoretical research. It has not been easy to examine physical phenomena at the atomic levels. There are more mathematical explanations than real explanations in modern scientific investigations.

Newton used mathematics to “describe” the void, which could not be realistically described. Maxwell used mathematics to “describe” aether, which was postulated by the wave theory of light. Einstein used mathematics to “describe” space and time in an effort to explain gravity. The increasing use of mathematics in quantum mechanics and particle physics has only resulted in further losing touch with reality.

Although Newtonian mechanics, Maxwell’s Electromagnetic theory, Einstein’s theory of Relativity, and now Quantum mechanics and Particle physics predict remarkably verifiable results in selected areas, they are not integrated enough to predict verifiable results for all physical phenomena.

The very fact that the fundamental theories of physics cannot be reconciled indicates that there are basic assumptions underlying physics that are inconsistent with reality.

The subject of physics started out considering material substance moving in a complete void. It stumbled over the question: “How do material objects influence each other across the void?” Any influence requires contact. The void does not allow any contact.

From the study of electricity and magnetism arose the idea of invisible force fields that could transmit force. This idea of field has changed considerably from Faraday’s lines of force to the abstract mathematical objects of quantum physics. But the interaction between matter and void has yet to be described realistically without using the prop of mathematical symbolism.

This book is written on the premise that physics is taking certain concepts for granted, which needs to be examined more closely.

The subject of physics started out with the consideration that there is matter existing in a void. Therefore, the first two concepts that need to be examined more closely are matter and void.

The Part I of this book traces the discoveries in the subject of physical sciences. Part II then looks at this subject for assumptions.

[NOTE: This is a work in progress.]

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Einstein 1920 (XV) General Results

Reference: Einstein’s 1920 Book

Section XV (Part 1)
General Results of the Theory

Please see Section XV at the link above.

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ith the velocity of light always takes the place of instantaneous action at a distance or of action at a distance with an infinite velocity of transmission.

Summary

The origins of the special theory of relativity lie in electrodynamics and optics. In its turn, the special theory of relativity has considerably simplified the theoretical structure of electrodynamics and optics.

According to the theory of relativity, action at a distance with the velocity of light always takes the place of instantaneous action at a distance or of action at a distance with an infinite velocity of transmission.

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Comments

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Einstein 1920 (XIV) Heuristic Value of Relativity

Reference: Einstein’s 1920 Book

Section XIV (Part 1)
The Heuristic Value of the Theory of Relativity

Please see Section XIV at the link above.

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Summary

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Comments

The fact that Lorentz transformation takes the velocity of light as constant is equivalent to treating light as a point of zero inertia compared to matter that has inertia. The transformation then accounts for the effect of imperceptible changes in inertia of the material bodies on their velocity.

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Einstein 1920 (XIII) Experiment of Fizeau

Reference: Einstein’s 1920 Book

Section XIII (Part 1)
Theorem of the Addition of Velocities. The Experiment of Fizeau

Please see Section XIII at the link above.

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Summary

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Comments

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