Military Subject Matter Expert (SME)
Welcome to the flat earth intel, this is an educational and information site on learning how to determine earths true shape.
The 45 Degree Sector Test USING the SUN
The 45 Degree Sector Test (Individual Sector)
The 45 Degree Sector Test Diagram Information Continued
The 45 Degree Sector Test (Individual Sector)
The suns height in our daytime sky will tell us earths true surface shape, understanding the 45 degree sector test is the key to this answer. Each angle within the 45 degree sector is identified in the diagram. We must understand that the position of the OS as it increases in distance from the suns equatorial plane or suns primary operating area the effects on measured height to the sun. Any increase in this distance using the globe model will result in increased curvature angle in *ALL* directions (for spherical objects). Curvature not only runs east and west but also north and south (globe model). For the flat earth model OS increased distance will result in lower measured sun angles or sun height. The OS is located along the line of magnetic and can be anywhere along this line as long as the sun is able to be observed to measure its height. The sun survey point is located at the OS. Of important note that the observer at the 3 hour mark will *traverse* onto the sun from the OS sun survey point to make the measured vertical angle (suns height) at the time of observation. In military science this is what is called a "Graphic Traverse" in survey operations. Where the observer is traversing onto the object of reference (the sun). In this act the sun becomes the "end of the orienting line" (EOL). This is established from the line of magnetic using the suns alignment with the observer using a compass and the Marx device.
The 45 Degree Sector Test
The 45 Degree Sector Test Diagram Information Continued
The 45 Degree Sector Test (Individual Sector)
The 45 degree sector test 3D version for the globe model. Of key notes the 45 degree sector is set by the east to west distance of the sun in sector from the line of magnetic at the sun survey point, known as survey control point, (SCP)). The suns operating zone the "Equatorial Plane" as shown. Sun angle measurements are made across the 45 degree sector measuring the suns height or elevation at the Orienting Station (OS) which is along the line of magnetic. A Marx Device is used along with a compass to emplace the survey control point. This creates accountability as well as uses timing within the process and application. The 45 degree sector in green on this diagram is north of the equatorial plane, however this can be more linear, northerly or southerly depending on the location of the OS. For the globe model the observer at 3hrs is oriented already at 45 degree to the sun which only leaves 45 degree of measured height to the sun or line of parallel. This is the globe models limit at the 3 hour mark. Any measured height angles above 45 degree puts the globe model into geometric failure. This is based on the heliocentric models sun size at said distance. This can be checked using a range fan (the measured angle exceeding 45 degree) example 1 degree or 46 degree measured angle height to the sun at distance equals 1,638,664 miles. This exceeds the suns actual size and radius. We must remember we are measuring sun center mass in the line of sight at its height.
The 45 Degree Sector Test Diagram Information Continued
The 45 Degree Sector Test Diagram Information Continued
The 45 Degree Sector Test Diagram Information Continued
Additional diagrams and information regarding the 45 degree sector test. Note the location of the OS along the line of magnetic, this is the observer position, this position maybe anywhere along the line of magnetic as long as the observer is able to see the sun. Understanding the farther north or south the observer is from the equatorial plane or band the lower measured sun angles will be this is because based on distance and the increased angle exceeding 45 degree (globe model). The equatorial plane or belt is the suns primary operating zone at which the sun is 90 degree contact point whether you believe the earth is spinning as in the globe model or orbiting the surface of the flat earth. Exceeding the line of parallel happens when the observer measures 46 degree or more in height to the sun. This is because you have now exceeded the suns *said* size at *said* distance in the heliocentric model. The heliocentric model actually works against itself in the aspect (farther distances) unfortunately for that model. Another key essential understanding of why a survey control point is used it *pins* the observer to that position. Meaning the observers line of sight is always center mass to the object (sun) when measured as they traverse onto the sun to measure its height. At 46 degree or more this pulls the observer off the sun at distance and its size. This is verified using a geometric range fan. Range fans are heavily used in the field of military science gunnery with regards to live fire weapons impact areas. They are geometric diagrams used to determine safe and accurate impact of rounds into a designated impact area, this in the process and application is (accountability).
Flat Earth Model 45 Degree Sector Test
The 90 Degree Sun Position for the Globe Model Explained
The 45 Degree Sector Test Diagram Information Continued
The flat earth model 45 degree sector flat earth model diagram as shown. It is much more simple because of the flat surface. All measure angles to the sun are effect by observer distance to the sun. The farther we are from the sun the lower sun angle will be, and the closer we are to the sun the higher sun angle will be. It really doesn't get much more simple than that. Other effects will be the observers altitude. Increased altitude will decrease measured sun angle, and lower altitude will increase measured sun angle. The flat earth model has a major advantage in this test this is because it has a greater "range" of measured angle (vertical angle) to the sun. Where the globe model only has 45 degrees at the 3 hour mark, the flat earth model far exceeds this exceeding 80 degree of allowable measure angle to the sun. This is also because the sun in the flat earth model is much smaller in size. Current estimates of the suns size somewhere in the 50-70 mile range. This is still being formulated and studied.
Timing
The 90 Degree Sun Position for the Globe Model Explained
The 90 Degree Sun Position for the Globe Model Explained
Timing within the test is a key element. The use of sun position time and clock time is synchronized in this process and application. Timing is based on the suns solar day which is referred to as "sun position time". This is the suns position at the OS survey point. The diagram shows how sector balance is created and also discourages time (clock time) manipulation by the individual(s) conducting the test to support one model or the other. Any changes in timing (clock time) effect all sectors (east and west). The suns position at the OS survey point will verify accuracy of this process between each 24 hour solar day. The example given is time adjustments for 30 seconds to show the effects and time at each reading for both easterly and westerly test reading (early and late clock time adjustments). If clock time is added or taken away it effects all sector readings. Hence the importance of the sun survey point at the OS. Ideally the sun survey point should be emplaced after each 24 hour test period for improved accuracy. You will note at consecutive 24 hour periods the survey marker position should be at or around 6-12" between each 24 hour (solar day) depending on the sun season. This lets the observer know they have excellent survey and sector timing based on sun position time. Any extreme distance movements (15' to 20') between each solar 24 hour day would indicate bad timing, possible magnetic interference when setting in the OS using a compass, or time adjustment. (start time change). Using the same consistent start clock time, the operator can see the actual survey marker position movements as the suns path changes after each 24 hour period.
The 90 Degree Sun Position for the Globe Model Explained
The 90 Degree Sun Position for the Globe Model Explained
The 90 Degree Sun Position for the Globe Model Explained
The 90 degree sun position as shown in the diagram for the globe model. When testing/measuring sun height (vertical angle) we must understand the suns position for the globe model and in its respective sun season. In the respective Summer sun seasons and when the sun is at the Equator as shown in the (green sphere) the sun is at 90 degrees (vertical) for the globe model in both hemispheres (the only time). The suns position and earths tilt in its season identifies the maximum measured height angle to the sun for this model at 45 degrees for the 45 degree sector test because the observer is at 45 degree surface angle to the sun at the time of measuring the suns height (vertical angle). The sum must then be calculated which is 45 degree surface angle + 45 degree measured height = 90 degrees (maximum limit). The earth for the globe model must tilt to be in compliance of 90 degree for its respective season. The off axis tile is also identified in this diagram which is more or less the Winter season in respective hemisphere. Because of this "off axis tilt" off 90 degree alignment occurs in the opposite hemisphere (Winter season). To account for this off axis tilt a *correction factor* based on the suns position either north or south of the equator (for tests in winter sun season) will be required, When the sun is at the equator no correction factor will be required.
Line of Parallel "How" it works in the Globe Model and "Why" its the limit.
Line of Parallel "How" it works in the Globe Model and "Why" its the limit.
Line of Parallel "How" it works in the Globe Model and "Why" its the limit.
Understanding "Line of Parallel" the globe models limit. When testing the globe model we must understand its limit with regards to the suns height in the 45 degree sector test. We must also remember that observer line of sight (LOS) is center mass to the sun. The observer measured vertical angle (height) of 45 degrees at 3 hours along with the angle of the observer now sets the combined sum (measured angle + observer angle) at 90 degrees or line of parallel with the sun which is at 90 degrees. You now have two lines in parallel. Any measured angle by the observer exceeding line of parallel +46 degree or more exceeds this models limit when we apply it against the heliocentric model's said sun distance at the suns said size. . This model then goes into geometric failure. We can check this using a right triangle calculation (range fan). See the "Range Fan" data slide in this section. Measuring the suns height will give us the answer.
The "Range Fan" Right Triangle Calculation for Exceeding line of Parallel
Line of Parallel "How" it works in the Globe Model and "Why" its the limit.
Line of Parallel "How" it works in the Globe Model and "Why" its the limit.
The "Range Fan" Right Triangle calculation as shown. This range fan data is from Operation Resolute Time 2020. Line of parallel was exceeded by 6.6 degrees. Using the heliocentric models said suns distance at the time of measurement. The heliocentric models sun distance varies from 91 to 94 million miles depending on the sun season. The fans distance for this data result is over 10 million miles. This results in severe geometric failure for the globe model because you are now off observer sun alignment line of sight (LOS) center mass to the sun. Based on the suns said size information. Range fans are heavily used in military science gunnery live weapons ranges for both direct and indirect fire determining range safety impact for different types of munitions/rounds.
The "Tilt" Correction Factor (Maximum) Summer/Winter Solstice
Line of Parallel "How" it works in the Globe Model and "Why" its the limit.
The "Tilt" Correction Factor (Maximum) Summer/Winter Solstice
The "Tilt" angle correction factor (globe model) applied on the summer/winter solstice days sun angle is measured in their respective hemispheres as shown. This tilt angle away from the 90 degrees (winter sun season) is now applied (accounted for) when measuring vertical angles (sun height) from the OS. The example shown is 23.5 degree or maximum tilt angle. The maximum sun height on this day would be 21.5 degrees as shown in the test box. For each day prior and after this number will change with respective tilt in degree.
Observer Angle (Globe Model)
The Updated 45 Degree Sector Test and "The Hand and Arm Practical Exercise"
The "Tilt" Correction Factor (Maximum) Summer/Winter Solstice
Observer angle is probably the most difficult for many to understand when I mention at 3 hours on the globe model. You the observer are at 45 degrees to the object of reference the sun. This is sun position time synchronized with clock time at the sun survey point at the first reading (Westerly). The last reading will be Easterly the next day at 3 hours prior to sun survey time. This can be verified as accurate by checking the distance between sun survey points in consecutive days using the same clock time which should move the sun survey point 6-12 inches apart for good survey. Of additional importance is the north to south angle of the observer as well, if the observer is in deep distance wise in the 45 degree sector this angle could exceed 45 degrees. A correction factor for this is being developed. This would give lower sun angle at the OS. We must remember sector distance is set at the suns east to west operating area within the equatorial plane (belt) for the globe and flat earth models. To understand observer angle and line of parallel better try this "Hand and Arm Pointer Practical Exercise" at home. Take an object your able to hold in your hand this would represent the sun. Hold it straight above your head with arm extended upward 90 degrees. Now with your other hand elevate it up half way to the object at 45 degrees, this is the observer angle you the observer are now at. Now the last 45 degrees raise your hand to point at the object in your other hand overhead (this is the measured angle) you are now at line of parallel or the limit of the globe model (pointing at the object *sun*). Any measured angle (46 degrees or more) beyond that exceeds that models limit and points away from the sun. It really doesn't get much simpler than that :)).
The Updated 45 Degree Sector Test and "The Hand and Arm Practical Exercise"
The Updated 45 Degree Sector Test and "The Hand and Arm Practical Exercise"
The Updated 45 Degree Sector Test and "The Hand and Arm Practical Exercise"
The updated 45 degree sector test a little more three D version. In listening to the flat earth community with regards to the older diagram, members were asking questions with regards to the diagram, hopefully this helps out and thanks to all the those with input as well. Noted changes the Winter/Summer Solstice *correction factor*. This accounts for off axis tilt for the globe model. An additional correction factor will be required for *depth* (North - South) of the OS along the line of magnetic. This is still being developed. To understand observer angle and line of parallel better try this "Hand and Arm Pointer Practical Exercise" at home. Take an object your able to hold in your hand this would represent the sun. Hold it straight above your head with arm extended upward 90 degrees. Now with your other hand (as a pointer) elevate it up half way to the object at 45 degrees, this is the observer angle you the observer are now at. Now the last 45 degrees raise your hand to point at the object in your other hand overhead (this is the measured angle) you are now at line of parallel or the limit of the globe model (pointing at the object *sun*). Any measured angle (46 degrees or more) beyond that exceeds that models limit and points away from the sun. It really doesn't get much simpler than that :)).
FAQs on the 45 Degree Sector Test
The Updated 45 Degree Sector Test and "The Hand and Arm Practical Exercise"
The Updated 45 Degree Sector Test and "The Hand and Arm Practical Exercise"
1. Why use 3 hours as a set time with regards to the test? This is because both models are broken down in to sectors. This is based on a solar day and using "sun position time" at the emplaced sun survey point. The globe having eight 45 degree sectors as well as the flat earth model giving full 360 degree. This equates to eight 3 hour sectors encompassing the model. This is verified by the survey control point using the sun at the OS. The sectors can then be tested with regards to surface angle based on sun position in the sky at 3hrs. Again we must understand OS location as well. Additionally if the earth is not a perfect sphere this will work against that model as angles become more severe. Currently two sectors within the globe model have failed geometrically, one in Southwest Asia and one in the North American Continent.
2. In looking at your diagram wouldn't the OS be more than 45 degrees if located outside the equatorial plain? You are correct, and this would be an additional correction factor, which is still being worked out. However the suns height is soo far off in vertical height for the globe model when physically measured in the summer sun season it is mute point really. This would however affect more northerly or southerly OS positions say like from Canada in the northern hemisphere or New Zealand in the Southern hemisphere, where a correction factor of say 8 to 12 degrees or more maybe required. I don't understand why the 90 degrees is important? It is critically important for various reasons, first with regards in being linear in other words we want to be in alignment with the sun at the OS, meaning straight on alignment out from the OS. A compass is used to create this line along with the Marx Device. We then have correct observer to earth to sun alignment. This sets the geometric edge from where we will make a measurement in height to the sun at 3 hours. This means the measurement is not ambiguous, it creates accountability within the process and application. Think of it more or less as placing a L between you and the sun at the set time both lines are at 90 degrees. Secondly the 90 degree mark is the limit for both models meaning from the OS a measured height reading combined with the observers angle to the sun cannot exceed 90 degrees. Once the sum total (measured height to sun and surface angle) exceed 90 degree (line of parallel) that model goes into "geometric failure." This is also why the *test box* diagram as two numbers in each test box for the appropriate model they are that models limit.
4. Is the sun always 90 degrees in the equatorial plain? Yes its the contact point to the earth as in the globe model as it spins or in the flat earth model as the sun orbits over the surface.
5. What about earths axis tilt does it effect the test? Tilt is actually required to get the sun at 90 degrees "within" the equatorial plane or the *belt* which encompasses the globe model. So, yes its required for that model to actually work for the sun to be at 90 degrees and its maximum height for the globe model. However the sector distance is set by the east to west distance in timing at the OS. The observer then traverses onto the sun at the OS and measures sun angle or elevation across the 45 degree sector at 3 hours. Now the Winter testing "off axis tilt" will require a major correction factor for Winter readings, this is something that will be required to be developed in the future. This could effect Winter test readings by up to 20 degrees or more based on observer location.
6. Timing, what is meant by "sun position time"? This is the suns position to the observer at the OS. For each 24 hour solar day the sun can be marked (emplace survey marker) using a compass and a Marx device. The 24 hour solar day can then be segmented based on sun position for each models size. The sun is truly an amazing celestial body learning how to use it as military science does is a higher knowledge process.
7. Whats the hardest part in understanding the 45 degree sector test? Observer angle, it really throws people off, especially using the globe model. Easiest way to understand this is what I call the "Hand and Arm Pointer Practical Exercise" at home. Take an object your able to hold in your hand this would represent the sun. Hold it straight above your head with arm extended upward 90 degrees. Now with your other hand (as a pointer) elevate it up half way to the object at 45 degrees, this is the observer angle you the observer are now at. Now the last 45 degrees raise your hand to point at the object in your other hand overhead (this is the measured angle) you are now at line of parallel or the limit of the globe model (pointing at the object *sun*). Any measured angle (46 degrees or more) beyond that exceeds that models limit.
8. What do the test results mean or tell us? The information identifies major issues within the heliocentric model. The first being the suns size at said distance. This is identified by the very large distance fan "spread". It also identifies the surface angle is incorrect. So it s a multitude of failures which combine for the large range fan spread in distance. This occurs from the vertical angle measurement (height) to the sun within the test range (45 degree sector). If the heliocentric model where to be close then measurements would have been in the low 40s even into the 30s in degree during Operation Resolute Time 2020. This is because of the distance and effect of high altitude, but this did not occur in fact the opposite where sun angle readings were in the low 50s. If the sun measurements would of remained low even in the summer sun season it would have convinced me that curvature did exist. The range fan for the heliocentric model would then work as it does not exceed line of parallel. However test results showed different in providing more solid evidence of flat earth. We must also remember that each model must past the test not just in specific locations but all all locations, and the testing should be nearest to the surface of the earth for accuracy.
Operation Resolute Time (ORT) 45 degree Sector *FAN* Finding
ORT 45 Degree Sector FAN for 4th of July 2020
ORT 45 Degree Sector FAN for 4th of July 2020
ORT 45 Degree Sector FAN for 4th of July 2020
ORT findings for the 4th of July 2020 for the *Globe Model* with a westerly measured sun height of 48.3 degree and easterly measured sun height of 50.1. The 45 degree sector FAN as shown for 4th of July 2020. As I continue to work through some of the FAN (measured azimuths to the sun) information from this 6 month operation provides some interesting information on the 45 degree sector FAN data. With the suns position just on the inside of the Tropic of Cancer in the first week of July. The test box changes based on observer position location to the tropics. This is due to location of the landmass and survey point closer to the tropics in one direction but farther in another direction. These are significant for both easterly and westerly readings. This is the case for the ORT 2020 test box. The test box is closer in its fan to the tropic of Cancer in the west (FAN) the surface angle is now 35 degree which gives a higher tolerance for measured angles for westerly readings. But at 35 degrees is a timing failure of 10 degrees (short) at 3 hours. The easterly test box is the opposite, the eastern FAN is farther in distance. This is more significant with the observer angle now being at 55 degrees to the sun. This results in the easterly readings far more out of tolerance and closer to 15 degrees which is what was expected for testing in the tropics. Result being massive geometric failure for the globe model. This also represents a timing failure as well of 10 degrees (longer) at 3 hours. Updates for this slide are now posed. Further case study on the 45 degree sector test for ORT show timing failures for the globe mode. What does this mean? For the globe model it means the earths orbital rotation is uneven within the sectors, with some being longer others being shorter, hence one sector being 55 degree (longer) and other sectors short (35 degrees at the three hour timing mark. Result being timing failures for the globe model, this difference in sectors would result in an faster orbit in sector then slower in the next sector. Imagine the metric tonnage of earth trying to speed up and slow down while rotating all in every 45 degree sector. Will continue to update more information as I investigate and process more of the FAN data. Again another reason for measuring both easterly and westerly and its significant importance. Reading times (measurements of sun height) were 0900 hours with azimuth 1580 mils (88.7 degrees) for easterly and 1500 hours with azimuth 4600 mils (258.4 degrees) for westerly. This also gives information on places where the 45 degree sector test maybe too close in location to the suns operating area (tropics) at an angle where the test boxes are far below 45 degree. Something to be cognizant of in future testing. With the adjustments to the test box all readings and measurements for the *Flat Earth Model* are well within tolerance. Google earth Pro map used.
45 Degree Sector Timing Failures Explained
ORT 45 Degree Sector FAN for 4th of July 2020
ORT 45 Degree Sector FAN for 4th of July 2020
Initial assessment and tests. Understanding the 45 degree sector timing failures and what they really mean when we look at the globe and flat earth models. A lot going on in this slide, the 45 degree sector with GREEN lines representing sectors with timing issues which means adjacent sectors will also have timing issues. This means the sun or orbital earth rotation of earth will have to go faster or slower in rotation in these 45 degree sectors. This creates a huge timing issue for the globe it means the globe has to physically speed up or slow down in 3 hour periods all while orbiting at 1000 miles an hour at the equator. The GREEN lines indicate sector issues either longer or shorter sun in sector timing (3-hours). This is done by comparing measured azimuths to the sun on the globe model at 3 hours and comparing the (sun plot). The difference between the two (3 hours and sun plot). You can see how this represents a major problem with timing for the globe. It would be like trying to stop a speeding locomotive train on a dime and then telling it to speed up into the next sector. This back and forth act speeding up and slowing down creates major issue with the orbital rotation of earth in the globe model. Will continue to monitor and do timing testing into this year. Initial reports look to have the globe model with only 2 out of 8 sectors with normal timing. As for the flat earth model with the sun being a projected object orbiting the flat earth its speed can be adjusted in sector. This could facilitate climate control based on the suns time in sector. The major issue in timing for the globe is that the earths orbital rotation would have to increase, decrease, and stay the same in some sectors doing all of this in a 24 hour period because the the orbital rotation or suns movement can be tracked at the sun survey point only being approximately 2" in difference in a 24 hour period.
Sun survey marker point information
ORT 45 Degree Sector FAN for 4th of July 2020
Timing and Directional Azimuths at the OS
There are two main elements to timing, the first is the timing on the sun survey point. The second is the timing of east and west azimuths within the 45 degree sector fan. The sun survey point markers (stakes) shown above. Of importance are the sun survey marker and its 24 hour difference, something of interest to many as well as myself. These markers were from 18 and 19 January 2022. The distance being 2 inches form a 24 hour period shows the importance of the Marx device along with a compass and its accuracy when emplacing the sun survey point. This is also an indicator of excellent timing at the sun survey point. Something I am looking to do in the future using tracking board for daily changes and marks during each sun season. This data will be of great importance for future use.
Timing and Directional Azimuths at the OS
Timing and Directional Azimuths at the OS
Timing and Directional Azimuths at the OS
The second part of timing has to do with the azimuths (east/west) within the 45 degree sector fan area. Directional timing is based off of the observers OS position to the suns operating range within the tropics. Timing and synchronization with the directional azimuths at the OS is a important factor the observer must be aware of. Easterly readings should be at or near 90 degrees and 270 degrees for westerly readings. Timing can be achieved by orienting the OS at these respective headings *prior* to the 3-4 hour mark 90 degrees for easterly reading and 270 westerly. The observer should mark time and sun alignment. Readings or azimuths either short or long (- or +) of these marks will result in less than or greater than surface angle of 45 degrees. This can be verified by performing a *sun plot* from the OS to the suns location within the tropics.
Maps the difference
Timing and Directional Azimuths at the OS
Maps the difference
As data is analyzed and reviewed, some notable differences in maps such as Google earth pro, ArGIS, azimuth equidistant and Gleason's 1892 maps. If the google earth pro mapping (globe model map) is used, distances seem to increase vs the Gleason's 1892 (FE model) map. Noticeable differences of close to 15 - 18 degrees. Something I will continue to look at as it applies to test data. In initial assessments the Gleason's 1892 map looks to be more accurate with distances and directional orientation (azimuths) with the sun.
Knowing the model limits in the 45 degree sector test
Model limits Information Requirements
The Flat Earth Model Line of Parallel Exceeded "Back Angle".
Whats your models limit on "Forward Vertical Angles"
Knowing the information requirements is the first step. All measurements are from the Orienting Station (OS).
Whats your models limit on "Forward Vertical Angles"
The Flat Earth Model Line of Parallel Exceeded "Back Angle".
Whats your models limit on "Forward Vertical Angles"
The model limits for both flat earth and globe model forward vertical angle (sun height) measurements. As shown the globe model is far more restrictive and limited due to its surface angle. Surface angle makes the BIG difference. Some examples shown for the globe model (line of parallel-exceeding line of parallel-within line of parallel). Line of parallel can not be achieved for the flat earth model unless the observer were to be located inside the tropics and positioned to a "back angle" to the sun. The sun being 1 degree at approximately 3000 miles from the flat earth (52 miles in size).
The Flat Earth Model Line of Parallel Exceeded "Back Angle".
The Flat Earth Model Line of Parallel Exceeded "Back Angle".
Identifying Surface Angle using Latitude and Longitude for the Globe Model.
Exceeding the line of parallel for the flat earth model is simple. The observer would have to be located in the tropics to a back angle to the sun. This is because for the flat earth model the sun is much smaller at approximately 52 miles in size at 3000 miles from earth. This equates to 1 degree in measured size at distance. All measured *forward* angle measurements are based on location to sun, distance, elevation, and suns location in the tropics.
Identifying Surface Angle using Latitude and Longitude for the Globe Model.
Performing a Sun Plot diagram using Latitude and Longitude for the Globe Model.
Identifying Surface Angle using Latitude and Longitude for the Globe Model.
Identifying surface angle when using the globe model for many can be overlooked. It is however a very important factor if we are to believe this model is valid. The above example shows a surface angle of 40 degrees. Each box or latitude and longitude square shown represents 10 degree each in surface angle. Surface angle not only runs from east and west, but also north and south. This angle must be accounted for when making any measurements of the suns height at distance. Surface angle is identified in the "test box" worksheet as the bottom number. For digital representations of the globe model latitude and longitude boxes can be made larger or smaller based on the viewer distance when panning in or out.
Performing a Sun Plot diagram using Latitude and Longitude for the Globe Model.
Performing a Sun Plot diagram using Latitude and Longitude for the Globe Model.
Performing a Sun Plot diagram using Latitude and Longitude for the Globe Model.
Now from the same example used in determining surface angle using latitude and longitude we can now do a "sun plot" based on the suns determined location in the tropics from the observer.based on the sun season. In the same example the surface angle for this sun plot has a surface angle of 40 degrees, and a measured directional azimuth from the observer to the sun of 88 degrees. Note the observer position to the sun and its location. Again this example is for a observer who is located within the tropics. The sun plot is determined by the measured directional azimuths to the suns position in the tropics both easterly and westerly by the observer at the time of measuring the suns height. The best times for this are when the sun is the equinox or solstice times. However other times can be used.
The *Sun Plot* 45 Degree Sector Range Fan
Performing a Sun Plot diagram using Latitude and Longitude for the Globe Model.
Performing a Sun Plot diagram using Latitude and Longitude for the Globe Model.
The "Sun Plot" 45 degree sector range fan as shown. You will note the azimuths from the OS to the suns location in the tropics (Equator to Tropic of Cancer). The fans azimuths should be 45 degree in distance from the OS at the directional azimuth headings to ensure timing is synchronized with distance. A sun fan plot should be constructed prior to testing to ensure timing and azimuths along with the suns location meet the 45 degree sector distances from the OS. You will also note the 23 degree differences in the measured azimuth ranges from the OS. This ensures proper coverage of the fan this is because the distance between the equator and tropic of cancer is 23.5 degree. The observer may not always have a perfect easterly or westerly heading, this is based on the OS location to the tropics. The fan should resemble a "Bow Tie" form as shown. The sun will spend around 182.5 days each side of the equator with 91 days in one direction then 91 days back, this equates down to .25 degree azimuth heading difference a day.
The Test Box Worksheet for the Globe Model.
The Test Box Worksheet for the Flat Earth (FE) Model.
The Test Box Worksheet for the Flat Earth (FE) Model.
Using the test box worksheet as shown above can be used to determine sun height measurements as well as surface angle data by the observer. Example above is a surface angle of 45 degrees and a measured sun height of 45 degrees this would represent a pass in the test using the sun. The other example given is is a surface angle of 45 degrees and sun height reading of 50 degrees which represents a failure for the globe model using the sun. We must remember that line of parallel is the limit for the globe model. The first line being the sun at 90 degrees, and the second line in the line of parallel is the sum of the surface and and measured sun height with 90 degrees being the maximum number. Any sum value exceeding 90 degrees puts the globe model into geometric failure or exceeds the line of parallel.
The Test Box Worksheet for the Flat Earth (FE) Model.
The Test Box Worksheet for the Flat Earth (FE) Model.
The Test Box Worksheet for the Flat Earth (FE) Model.
Using the test box worksheet as shown above can be used to determine sun height measurements as well as surface angle data by the observer. Example above is a surface angle of 45 degrees and a measured sun height of 45 degrees this would represent a pass in the test using the sun. The other example given is is a surface angle of 45 degrees and sun height reading of 50 degrees which represents a failure for the globe model using the sun. We must remember that line of parallel is the limit for the globe model. The first line being the sun at 90 degrees, and the second line in the line of parallel is the sum of the surface and and measured sun height with 90 degrees being the maximum number. Any sum value exceeding 90 degrees puts the globe model into geometric failure or exceeds the line of parallel.
The Test Box Worksheet for the Globe Model examples.
The Test Box Worksheet for the Flat Earth (FE) Model.
The Test Box Worksheet for the Globe Model examples.
Examples of the "Test Box Worksheet" as shown for both within the line of parallel and exceeding line of parallel or the globe models limit. Note the sum readings for each example which are; observer surface angle and measured sun height.
Sun Plot Grid Azimuth Tables from the OS (Example)
Sun Plot Grid Azimuth Tables from the OS (Example)
The Test Box Worksheet for the Globe Model examples.
Examples of the "Sun Plot Grid Azimuth Table" as shown for an OS. The sun plot grid azimuth tables give the observer a relevant directional azimuth to the sun at a specified date of observation. It must be remembered that each 24 hour period a new sun survey point maybe emplaced by the observer for more accuracy. Each new survey point will affect the sun plot azimuths each day a new survey point is emplaced however this affect is very minimal and the sun plot tables area guide for the observer. Each 24 hour day the directional azimuth changes approximately 1/4 of a degree. The observer should review the OS position each planned observation day to ensure the *FAN* 45 degree coverage from the OS is obtained. The best time to construct a sun plot table are the known or approximate dates of the equinox or solstice dates. From these dates the suns position can be accurately plotted by each day within the suns operating zones the tropics. The observer must then convert the grid azimuths to magnetic azimuths based on the OS location to orient the OS platform on magnetic azimuth (easterly or westerly) direction and record the suns height. Allowing the sun to move into the observers view at the time of observation.
The foundation Process and Applications
Use of the Sun, Military Science and Geometry
Use of the Sun, Military Science and Geometry
Use of the Sun, Military Science and Geometry
The solid foundational processes and applications in the development within using the sun, military science and geometry are shown in the diagram. Understanding the process and application requires some study, it is a higher developed knowledge. The processes and applications are layered and interlocking within the entire system. It is why the sun, military science and geometry are the foundational base and can be used to determine earths true surface shape. Understanding the 9 step geometric validation process (explained in the information section) encompasses all the foundational work. Do you the individual need to know all this information? Certainly not, it took me the better part of 35 years to understand all of this and 4 years to put this all together. What you will see on this website are the more simplified applications and processes gained from my experience and using this foundational work to develop the process using the sun. Understanding the use of the sun is the real answer. Welcome to the science of flat earth.
A Special Message to Educators and Science
Use of the Sun, Military Science and Geometry
Use of the Sun, Military Science and Geometry
Heliocentrism is in decline as more and more information, testing and experiments are conducted providing solid evidences against "heliocentrism" are brought to light. It is living on borrowed time. despite the billions of dollar's poured into this model to keep it afloat. And when it does collapse, it will come sudden as the wind to ones face in a storm. And if you don't know it yet, there is a storm raging, and there will be those who will go down with that heliocentric ship in the storm. They are the casualties of heliocentrism. Don't be THAT casualty, join us! The flat earth community welcomes you. Share "your experience", help us build a better world and understanding for all. I understand that people can be put in a very difficult situation based on biases, beliefs and ostracized within their field of study or work. Taking that first step can be a daunting barrier. For those that are in this position we have "compassion" for you and understand it takes time. Just know that having the courage to do it, opens up a whole new world for you. We will be waiting for you when you do decide to come into the light :)).
Operation North Star has started near Bismark North Dakota
The Globe model suffers "Geometric Failure" in its first night test in Operation North Star
The Globe model suffers "Geometric Failure" in its first night test in Operation North Star
The Globe model suffers "Geometric Failure" in its first night test in Operation North Star
The globe model suffers geometric failure in its first night test conducted near Bismark North Dakota. Corey taking a angular measurement to the North star (Polaris) near Bismark, North Dakota on 7 October 2021. The North star is advertised as being right around 44 million miles (22 million mile radius) in size. Position of this OS was at latitude 46 degrees giving the globe model 44 degrees to line of parallel. Time measurement was taken was 00:32 am, elevation at the OS was 1708 feet. OS station height was .5 meter (half meter). The reading from this station was 47.2 degrees which exceeds the globe models tolerance or line of parallel by 3.2 degrees. or in miles terms 334,929,029,958 miles off line of survey (grid magnetic North). With the north star at around 6 trillion (twelve 0's) miles or in some reports as near to 3 trillion miles. This measurement falls well within the flat earths model tolerance. Operation North Star will continue with more readings coming in from different locations.
Operation North Star Test Data
The Globe model suffers "Geometric Failure" in its first night test in Operation North Star
The Globe model suffers "Geometric Failure" in its first night test in Operation North Star
Test data for Operation North Star's first test near Bismark North Dakota. It is important to remember elevation in testing and its effect. The higher in elevation the OS is the lower the measured angle reading will be. In determining earth's true surface shape for the globe model to be valid, sea level is closest to the geometric true shape (form) of that model. If the globe model is failing at higher elevations in testing this is of major significance because it only gets worse as elevation decreases for that model. Additionally location of testing the globe model will require it to pass testing from ALL locations not just specific ones for it to be valid. The flat earth model has passed its first night time geometric test using the North Star (Polaris).
Flat Earth Conferences and Festivals
Flatoberfest 2021, Spartanburg, South Carolina
The Flatoberfest 2021 flat earth festival was another great flat earth conference event. Held in Spartanburg, South Carolina on 23/24 October. Guest speaker Corey presents Flat Earth INTEL.
A special thanks to Karen B for all her hard work to make the festival event a major success!