The Laws of Space and Observation: A Unified Theory
James P.Siepmann
Journal of Theoretics, Editor
4019 Shangri-la Pt., Oshkosh, WI 54904, USA
E-mail: jps@vbe.com Telephone: (920) 235-8663
Abstract: Observational Physics is a new theory which goes back and corrects the errors that were originally made in special and general relativity, to create a working unified theory. Observational Physics is based upon the concepts that the universe is composed of energy in four different forms, time is constant, distance is relative, Space exists as a fourth form of energy, and rather than relative states, there are observed states of which the only true state is that which an object would see itself. To date, this theory has been correct for all macro calculations and it predicts that all black holes will have a true gravitational force of 2.0E8 m/ s2 at its horizon. With Observational Physics, gravity can be calculated without a gravitational constant.
Introduction
Observational Physics is based upon the unique premises that the universe is composed solely of four forms of energy, time is not relative, Space* exists, distance is a function of Space density, and that the only accurate state of observation is that which an object would see itself.[1] All other states of observation are relative and in order for an observer to calculate the true values for an object’s size, mass, gravitational force, and energy, one must use the relative space density and warp equations which are explained in detail later.
By using the Relative Space Warp (RSW) equations, it becomes simple to calculate the actual gravitational force of any body without having to use the gravitational constant.[2] It is necessary that we no longer think of gravity as a “pulling” force (i.e. gravity waves) but rather that of a force which results from the displacement of Space and if anything would be a “pushing” force. This entity which I have come to call “Space” may actually be what has been referred to as “background energy,” “vacuum energy,” or “zero-point field energy (zpf)” in the past. The characteristics and properties of this “Space” shall be explained later.
The following are the Laws of Space which delineate out the characteristics and properties of Space and energy which comprise the whole of the universe:
The theory works quite well on a macro (cosmological) level. In fact, it works so well that the gravitational force of any mass can be calculated without using the gravitational constant. In fact, it also allows us to discover that the gravity of any black hole at its horizon will always be 2.0 E8 m/s2 (see addendum).
The next step will to see if it can predict and explain the gravitational forces on a quantum level which are miniscule relative to the other atomic forces.
Additionally, this theory could explain the 80+% of “dark matter” that we can not account for. If Space is composed of energy then it will have mass. It also should have its greatest density in those areas of high matter/energy density.
How can it be validated/proven?
Observational Physics
The Relative Space Density and Warp Equations
"Relative Space Density" (RSD) is the density of Space in which an observed object resides relative to the density of the observer’s Space. The RSD is calculated by dividing the density of the observer's Space (Dobs) by the density of the object's Space (Dobj).
Therefore any object will always see its own relative Space density as being the same (RSD=1) no matter where it is in the universe. Because the density of Space may be hard to measure, we can convert our definition of RSD to distance since D=m/d3 and for an object at relative rest where mobs= mobj and we are only measuring along one axis then RSD = dobj/dobs.
But in order to make any sense out of the RSD equations and to validate the theory, I have created “Observational” physics [1] which I will try to briefly outline.
As shown by Sir Arthur Eddington in 1919 and others since in terms of the Sun, there is a warpage of Space around a mass which I call the “Relative Space Warp” (RSW). I have defined this as being the Angle of Photon Deviation (APD) as measured in degrees and divided by 360 degrees with a correction for any interference that may be caused by the gravity of the observer's viewing site which I will call the Angle of Gravitational Interference (AGI).[1] Obviously a more complicated version of this equation may be needed if there are more than one gravitational forces interfering with the APD, but the basic concept is the same as expressed in the following equation.
RSW = APD/360 - (sin(AGI) x APD/360)
Since the RSW of an object is proportional to that object's gravity (g), we can say the following for any two masses y and z.
RSWz/RSWy=gz/gy
We can now substitute the sun for object y and solve for gz as follows.
RSWz /RSWsun= gz /gsun
gz = gsun /RSWsun x RSWz
It is now possible to see that the number represented by gsun/RSWsun is a constant, which would be the same for any celestial body. I am using the sun because it is the only celestial body for which I have the appropriate information. I will call this number the “Space Constant” (SC) which for now will have an approximate value of 2.0E8 m/s2 as calculated here.
SC = gsun/RSWsun
SC = 274 m/s2/((1.75 arcseconds/360degrees) x (1degree/3600arcseconds))
SC = 274 m/s2 / 1.35E-6
SC = 2.0E8 m/s2
As more information about other celestial masses becomes available, the numerical value for the SC will become more accurate. We can now determine the gravity of any object using the Space Constant Equation as shown here.
gx = SC x RSWx
The calculation of gravity at any distance from an object can be done by just measuring the RSW of an object at that distance from its center. We can further prove the validity of these equations by finding out the actual APD for such bodies as the Earth and moon which would have a calculated APD of 0.064 and 0.010 arcseconds respectively.
gEarth= SC x RSWEarth
RSWEarth= gEarth/SC
APDEarth/360degrees = 9.80 m/s2/ 2.0E8 m/s2
APDEarth= 4.9E-8 x 360degrees x (3600arcseconds/1degree)
APDEarth= 0.064 arcseconds
APDmoon/360degrees = 1.62 m/s2 / 2.0E8 m/s2
APDmoon= 8.1E-9 x 360degrees x (3600arcseconds/1degree)
APDmoon= 0.010 arcseconds
With Observational physics like SR, the observer sees the object's size (distance) decrease as relative velocity or gravity increases but unlike SR, time is constant for both the observer and the object (no time dilation). I have created a device which measures true time by the duration that it takes light to travel a certain distance which will be constant because the observed speed of light is a constant to an observer in the same existence state and will always 3E5 km/s which I prefer to call cobj.[3] If my theories are correct then the “light clock” will not show any of those “relativistic changes in time” that may be currently seen with conventional and atomic clocks and it would also explain why there is an observed difference in the speed of light (cobs) in different media.
Key Points
Conclusion
It is one thing to come up with a grand theory of everything, but it is another to show that it works. The Laws of Space and Observation have been shown to be valid on a macro level and now the key is to show that it is valid on the micro (quantum) level.
I have described those experiments which could validate the theory further and hopefully, I shall be able to get others to assist in carrying them out.
*The capitalization of the words “Space” and “Universe” has been done intentionally in order to differentiate these specific and unique entities from their generalized common noun usage. The term “Space” as being used here is a proper noun defining a specific physical entity, and “Universe” as being used here is a proper noun defining our specific universe.
References
1. Siepmann JP, The Laws of Space and Observation, Journal of Theoretics, Vol. 1 No. 1, 1999
2. Siepmann JP, A New Method of Calculating Gravity without the Gravitational Constant, Journal of Theoretics, Vol. 1 No. 2, 1999
3. Siepmann JP, The Light Clock: A New Method for Measuring True Time, Journal of Theoretics, Vol. 1 No. 1, 1999
Addendum
Calculation of Space Constant (SC):
SC = gsun/RSWsun
SC = 274 m/s2/((1.75 arcseconds/360degrees) x (1degree/3600arcseconds))
SC = 274 m/s2 / 1.35E-6
SC = 2.0E8 m/s2
Using the Space Constant Equation we can also calculate the gravitational acceleration at any black hole horizon (bhh) as shown below.
gbhh = SC x RSW
= 2.0E8 m/s2 x 360/360
= 2.0E8 m/s2
Calculation for a bh radius:
We can also figure out the observed radius of a bh by using a 1 solar mass bh and comparing it to the sun, which is also 1 solar mass. Because we know that the RSW is proportional to mass (m) and inversely proportional to radius (r), we can therefore solve for the observed radius of a 1 solar mass bh.
RSWsun/RSWbh=(msun/rsun)/(mbh/rbh)
1.35E-6/1=(1/6.95E8m) /(1/rbh)
rbh=1.35E-6 x 6.95E8m
rbh= 938 m
The radius of 938 meters would give us a circumference of 5.89 km, which is quite different, than the 18.55 km obtained from Classic Relativity:
C= 4p SG/c2 = S x 18550 m = S x 18.55 km
C=circ. of a bh, S= # solar masses, c=2.998E5 km/s, G=1.327E11 km3/s for 1 solar mass
Also the density of a bh can be calculated using Observational physics and is found to be 7.67E20 kg/m3 .