| base. Verticalal wall boards placed against the support bricks guided the stele as it went vertical . Vertical side supports embedded in the wall and tied together as the stele submerged would keep the stele from shifting sideways. One board at a time was removed from the base cradle as the rest of the cradle rested on the bricks/clay base. After the cradle had been completely removed slight dampening of the clay bricks would have allowed a very, very slow settling to the base. This very slow settling preserved the edges of the stele from spalling. Why didn't they use cranes? If necessity is the mother of invention then practicality is the father. What further use would an expensive giant crane be? Who would want to take a chance of dropping or snapping in two such a huge monument? They already had a proven technology that worked. Now here's something practical to consider. How did they manage to cut huge blocks of stone for the pyramids so precisely that the cut did not require further grinding and smoothing? Actually, the blocks within the pyramid do not fit that tightly. They did not use chisels and hammers to cut huge blocks of stone in a quarry. The method is this : a series of holes about three inches deep are drilled . Two "feathers and a wedge is put into each hole. When all the holes have been drilled and the feathers and wedges installed the mason gives a slight tap to each wedge in turn until the stone begins splitting and finishes splitting by itself. Did you ever use a bow drill to start a fire? Holes in stone can be drilled the same way. Stones are given an ultra smooth finish by rubbing a soft stone against the harder one to be finished with fine grit between them sufficiently hard to enbed in the soft stone and act as a sand paper against the stone to be polished. a cloth or animal glue may have been used to hold the grit on the polishing stone. Today we finish sidewalks with a broomed slightly rough finish. If a very fine hard stone is embedded in the broom finish it makes a fine grinding stone. A bow saw of rawhide with grit embedded or glued to the rawhide would yield a fine even straight cut and could be operated using a treadmill and a brush blade similar to that used on a chain saw. It would not be difficult to make a very long cut with such a saw. Long fragile steles were never carried on ship. Under the ship maybe but never on top of it on the Nile. It's most likely that men with paddles were employed on top of or next to the steles going downstream while a longboat filled with rowes would have been used to tow the stele upstream. |
| Quarry canals |
| 1. What was the speed achieved coasting down the finished corners of the pyramids? 2. Who ran the supper club on the flat top of the pyramid? 3. Was the airspeed induced by the heat convection great enough to keep a kite suspended without attention? 4. Was competitive bidding employed for awarding the cable car /elevator concession? 5. How many corners had stairways? 6. Were there any niches for potted plants? The base layer of interior blocks are half the height of the base layer of perimeter blocks. The base perimeter blocks were held in place by any number of rows of full height or half height blocks butted against the outside of the perimeter blocks. Stone /brick and mortar cofferdams were built on top of the perimeter blocks to a sufficient height to accomodate the height of the proceeding perimeter block and it's float. Thus each perimeter block was held in place by it's predecessor and the weight of the cofferdam. There was no water pressure against the bottom half of the proceeding perimeter blocks as the seepage away from the base of the block was at a greater rate than the inflow. The same style of locks were used in the quarries to move the blocks out of the quarries. Floats were attached to the tops or sides of the blocks in the quarry by means of strips of cotton cloth passed around and over the stone and attached to floats placed on the top of the stones . A removable crank was employed to twist a shaft to tighten the cloth bands. A simple pin or two crosswise through the shaft would have been sufficient to hold the assembly tight. Animal skins would have stretched during a journey in water. Long strand Egyptian cotton cloth was used. A stone weighs much less under water and is easily maneuvered into place by a slight push. Several balls of dried clay thrown under a stone block made it easy to remove the suspension straps. Look for the proof, find the clay still present in the pyramid. Clay possesses dual properties. Clay is semi-permeable. A mixture of clay, sand, and pebbles may have been used as a sub-floor to help retard the loss of water by seepage. A number of materials were available for sealing floor and wall seams including mortar made of volcanic ash, tar, rawhide, rushes, straw, etc..The same style of manual treadmill pumps are still used today for irrigation though the materials may have changed. The length of the hypotenuse = the square root of the sum of the two sides squared. The hypotenuse = the square root of the sum of side A squared plus side B squared |
| . |
| 71 x 76 |
| Water Pressure, P.S.I., Fresh Water at Sea Level 14.7 P.S.I. Atmospheric pressure on the inside and outside of an open container is the same so we will consider only the additional pressure at depth and consider surface pressure at - 0 - |
| Surface -0- |
| Depth 06" = 0.21678 |
| Depth 12" = 0.43356 |
| Depth 18" = 0.65034 |
| Depth 24" = 0.86712 |
| Depth 30" = 1.08390 |
| Depth 36" = 1.30068 - 3' |
| Depth 42" = 1.51746 |
| Depth 48" = 1.73424 - 4' |
| Depth 54" = 1.95102 |
| Depth 60" = 2.16780 - 5' |
| Depth 66" = 2.38458 |
| Depth 72" = 2.60136 - 6' |
| Depth 78" = 2.81814 |
| Depth 84" = 3.03492 - 7' |
| Depth 90" = 3.25170 |
| Depth 96" = 3.46848 - 8' |
| Depth 102" = 3.68526 |
| Depth 108" = 3.90204 - 9' |
| Depth 114" = 4.11882 |
| Depth 120" = 4.33560 - 10' |
| Depth 126" = 4.55238 |
| Depth 132" = 4.76916 - 11' |
| Depth 138" = 4.98594 |
| Egyptian Granites |
| Depth 144" = 5.20272 - 12' |
| the locals huffing and puffing to pull a very large stone across wooden rollers or up a greased ramp. Then they will show men struggling to load a miniature stone needle onto a barge. Luckily these 'engineers' were never put in charge of actually building anything of note, as they would have soon impoverished Egypt and killed off the male population by exhaustion and starvation. Only a population with an agrarian base has the stability, tools, time, and the skill to build great works. Hunters and gatherers are always on the move looking for their next meal. Only a population with extensive free trading contacts can assemble the materials that were necessary for erecting the Pyramid. The short list of materials that the Egyptians accessed were steel, copper, tin, zinc, gold, silver, lead, tar, nard, animal fats, all manner of wood including bamboo, waterproof mortar, diamonds, alloys of metals. Solder. Tools included pumps, dams, canals, locks, protractors, drawing compasses, plumb bobs, magnetic compasses, hammers, chisels, diamond tipped saws, metalworking furnaces, melt shops, forges, compound pulleys, ropes, prybars, levers, etc.. They had all the tools, time, materials and knowledge that they needed, yet these modern engineers cannot figure out how the pyramid was built and the evidence lies all around them. Water wheel crockery pumps and screw pumps are still in use. The stones were never loaded on barges for transport. The same floats that floated the stones under the surface of he Nile also lifted them up the locks in the causeway to the sorting area around the pyramid and then lifted them up the series of locks erected on the four corners of the pyramid. Water was pumped to the pool top of the working surface. As the gate on each succeeding descending lock in the series was opened the stone(s) below was lifted one level. A single volume of water lifted every stone in that series one step. Each corner had it's own set of locks. As the pyramid grew in height the volume of material required for each level shrank exponentially. As the area of every level shrank less time was required for placing each succeeding level of fewer blocks. The only choke point was the production of building blocks. Each ascending level was built faster than the preceeding level. Henry Ford did not invent the assembly line, he adapted it to build automobiles. There were two choke points in the assembly line: 1.The production of building blocks and 2.The placing of cofferdams on top of the outer perimeter stones to hold them in place and raise the water level in the working pool. The cofferdam material was left in place as smooth outer sheathing. Archimedes did not invent the screw pump, he discovered it already in use in Egypt. |
| GRANITES |
| Egyptian method of splitting quarry stone = |
| Pyramid Height Extended to theorectical Lehner = 481' including cap. |
| Base, corner to opposite corner =1,069.14' |
| Corner length from base to top point =719.112' |
| This simple experiment will teach you the basic "SECRET KNOWLEDGE OF HOW THE PYRAMIDS WERE BUILT. Get a cement block, a bathroom scale, a broom, and a coat hanger wire or piece of rope. 1. Place the cement block in the bucket. 2. Thread the coathanger wire or piece of rope through the cement block. 3. Place the bathroom scale on top of the bucket. 4. Lay the broomhandle across the scale and secure bothe ends of the rope or wire to the broom handle. 5. Lift the scale and note the weight of the block. 6. Fill the bucket with water and lift the block off the bottom of the bucket, note the weight. 7. Continue lifting the scale very slowly while watching the read out or dial of the scale. Now you know more about building pyramids than all the writers of the last 2,000 years. Was the method of building pyramids copyrighted? In a way, Yes! How was the knowledge copyrighted? If a product is no longer manufactured the knowledge and machines of manufacture are left to rot or taken apart and put to other uses. Without a written language the knowledge is lost within a very few generations. Now suppose you had just built the "Wonder of the world" and you didn't want anyone to ever be able to duplicate it? The commoners were 'uneducated', with no written language. Only a very few had written language. Have you ever noticed that some people won't share their methods of "doing things the easy way" ? Or they want to keep the profit of their new method? That's what copyrights are for. But suppose you just had a huge pyramid built in your honor and you didn't want anyone else to succeed in making a copy, and there was no written language. You would not have carvings made showing the methods used, you would do just the opposite. You would show a group of men struggling to pull a huge stone up a five mile long ramp. You would carve pictures in rock of huge sledges with runners instead of wet boxes with wheels to transport steles and huge stone blocks. If any of the quarries still exist as they were when quarried for blocks they would have used locks to lift the blocks out of the quarry, otherwise they would have had to flood the whole quarry at once with a float attached to every block and then drained the quarry - not smart. Why they built pyramids is not a mystery, they built them because they could. The mystery is why four corners instead of three? Better yet why not a perfectly round tower? Would have required more stone? You have probably seen 'Engineers' on TV programs standing in front of the Great Pyramid posing the question "Who built the pyramid and how did they do it?" Later in the programs you see the thick ropes and several of |
| The locks could only be located across the corners of the pyramid because it is the only location where the distance between the sequential corners of the tiers exceeded the combined width of the block and the lockbox required to contain it. The ends of the locks were supported on vertical shafts to the stones below if required. The body of the lock rested directly on the lower level corner stones and against the corner of the pyramid.. The locks were perpendicular to the corners of the pyramid.The angle of the pyramid was dependent on the height desired and size of the blocks.The vertical angle of the pyramid corners is not as acute as the angle at the sides of the pyramid.The foremost consideration was the size of the blocks that could be quarried and transported to the site and the strength of the locks.necessary to raise the building stones. Some authors argue that concrete was used until the source of stone to be burned and pulverized for cement / concrete were exhausted. Concrete is a mixture of broken stone, sand, gravel. The cement is the expensive ingredient. If concrete was used for the casing stones as sometimes claimed they should contain irregular broken stone for bulk.If they were cast in place great numbers of workers would have been required to transport the material unless locks were employed. The primary purpose of the "Casing Stones" was their use as coffer dams to raise the water level and hold the perimeter walls in place for the next tier of building blocks.It's most likely that they were constructed of stones and mortar but could also contain clay bricks and mortar. The romans used volcanic ash for making waterproof concrete. Their work still stands. The egyptian works predated all the roman works. Only a moron would believe that ramps, rollers, ropes, and cranes were used to build the pyramids. They were too slow. These farmers knew how to dig canals, pump water and build locks. Please credit the author if you decide to reproduce any part of this dissertation.. Surfcams1 (Lambadafan Ed), Original work 1997 |
The locks could only be located across the corners of the pyramid because it is the only location where the distance between the sequential corners of the tiers exceeded the combined width of the block and the lockbox required to contain it. Only a fool would consider loading a labor intensive fragile stele on a barge. Stone has very little strength in tension..The stones and steles were suspended underwater with floats for transport from the quarries. Locks were opened sequentially to lift the stone blocks one level at a time. One volume of water was used to lift every block in the series one level. How fast was the system? The uppermost lock had an exit chamber attached. Each main sliding door had at least one smaller sliding valve door installed at the bottom of the door for metering water flow. Several sliding valves were probably incorporated into the main lock doors for very rapid As soon as the block was removed from the exit chamber and the exit door closed, the door between exit chamber and entry chamber was opened and the suspended block in the elevating chamber was pushed into the entry chamber. The door between the entry chamber and elevating chamber was closed. The door between the second and third tier is opened and that block floated/ moved to the second tier. Thus by opening and closing doors and opening and closing sliding valves the blocks were raised to the top of the pyramid. Very simple, very fast. The locks were built wide enough to accomodate multiple stones as the stones varied in size. They installed two courses or more of perimeter stones at a time to accomodate very large core stones. The locks would have been built to accomodate the largest stones used. They had four sets of locks, each set could have been designed to accomodate a certain range of sizes. We know that huge blocks were raised and we know that every so often the working surface was evened out. Smaller blocks were used near the top, so we know that sorting was employed. |
| Braz_dos_Santos |
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| Great Pyramid of Egypt |
| Base side length = 756' Lehner |
| Corner, angle from base to top = 41.98 degrees |
| Slope Angle of sides to top Lehner =51 50' 40" |
| floatation . |
| The weight of water displaced by an object and it's float is slightly exceeded to enable |
| Igneous granite was and is preferred for monuments because of it's strong crystalline homogenous structure and resistance to weathering. The mystery is how they were set upright. A wall of clay bricks was built to support a lock at the next higher level. As soon as that lock was assembled and the wall assembly cured, the stele was transferred to the higher lock as was all the water.The now empty wooden lock was lifted by a row of men on each side of the lock, each man raising the equivalent of a board two feet wide and ten feet long vertically four feet while sawhorses were placed under the empty lock box to make room for the brick masons to place the next higher section of support wall under it. The stele was transferred from one lock to the other as each level of bricks were laid by the masons until the stele and locks were raised a sufficient height with the stele lying horizontally within the locks. If you have ever watched brick masons at work you know how fast this work may proceed..Now that the stele is in position directly over it's predetermined location how will the stele be lowered into position without the use of cranes and ropes? Our bricks are a mixture of the correct proportion of unfired sand and clay placed on a bed of damp clay. When the support wall was of sufficient height another layer of damp clay was placed and leveled carefully for immediate installation of a lock. When the support wall was cured sufficiently the stele was transferred to that higher level. And so it went until the stele was raised a sufficient height for vertical installation. The next problem to be solved was the method of of bringing the stele to precise vertical position without snapping the stele in two by uneven support as it was bought into vertical position. This is the way that it was accomplished. They may have perfectly leveled a base surface area large enough to allow for glitches, though after a few hundred years of experience the method would have been quite precise. At the base, fired and glazed clay drainage pipes with 90 degree elbows were positioned. As the brick support wall was raised, two foot lengths of glazed pipe were added, bell end up, and a three sided vertical wooden trough guide was lengthened opposite the final rest of the horizontal stele.. When everything was finally in place a wooden cradle was affixed to the bottom end of the stele, the upper half of the lock sides were removed, and the the support base was systematically eroded away with water which carried the the dissolved bricks away down the pipes. The wooden guide and cradle allowed the stele to retain the flat sharp corners of the base. Careful removal of the supporting base along the full length of the stele allowed the stele to reach vertical at a predetermined distance from the |
| . |
| Number of finish tiers |
| Number of finish tiers= |
| Length of lock rest perpendicular to tier corner= 2.62' |
| Variations in core tier height = 20" - 59" |
| Number of tiers required including capstone = 204, - was not designed for a capstone. |
| Capstone height, theoretical = 2.3578431' |
| Actual number of tiers =203 + 1 Capstone |
| Face Slope Angle - Mark Lehner = 51: 50' 40" . |
| Royal cubit = 20.6066 Primative inches |
| Primative Inch = 2.54268 centimeters. |
| Original height Mark Lehner 481 Feet. |
| Base Length - Mark Lehner = 756'. |
| Average height, Perimeter Stone, without Facia extension = 5.240882' |
| Average height, Perimeter Stone + Facia =7.86132352 |
| Lock Height = Lower Lock floor + Lower Lock height + Upper Lock floor + upper lock |
| ?Lock length total = length formed by missing x,y perimeter stones caps. |
| height. |
| Weight per cubic inch of water = .433333 pounds per cubic inch |
| The doors are always located on the pressure (Upper) interior side of the lock frame. |
| Solid Limestone, specific gravity = 2.61 |
| Solid Limestone, Lbs. per cubic foot. = 163 Lbs. - Lbs. per cubic inch =.094328703703 |
| Solid Limestone, weight per cubic foot underwater. = 100.6 pounds |
| Water, weight per cubic foot. = 62.428 pounds = 7.066387 Gallons water. |
| Water pressure @ 2x height per tier = 2(2.357843) =(4.715686 x 1.73424) = 8.178 P.S.I. |
| Cubic inches water displaced by side floats = 232.153846 total /2 = 116.076923 cu. inch |
| Questions and answear |
| 1. Howcome the layers of limestone core stones are different heights? |
| Limestone is a sedimentary rock composed mostly of seacreature skeletons. Due to |
| variances of material deposition there are random silt layers between variable thick- |
| nesses of stone. Quarrymen would take advantage of conditions and cut the blocks |
| accordingly. |
| 2. Why were some layers of corestones out of level? |
| The area is subject to some earthquake action. As we have discussed limestone is some- |
| times separated into layers by silt. As the pyramid was built some of those layers were |
| compressed to the point of collapse. Several leveling corrections were made during |
| construction. |
| 3. How did they level the surface before they started building? |
| First they had to clear all the loose sand and soil and rocks from the surface. Then they |
| constructed an enclosing wall and flooded the surface with water and flattened most of |
| the surface. Cut stone was added to areas too low from areas that were too high. Where |
| necessary it is said that knobs and holes were used to hold the corner stones. Some |
| corner and perimeter stones were inlaid into the surface. |
| 4. How long did it take to build? |
| Not nearly as long as previously thought. The workforce was well organized,well fed |
| and in good physical condition. They were mostly farmers from the Nile delta area. The |
| primary concern was the supply of core blocks and concrete. Core blocks were cutstone |
| The first/ bottom perimeter stones were made of concrete if the photos are to be trusted |
| It's likely that the upper perimeter casing stones were built by placing concrete on top |
| of the outer perimeter stones. The height of the concrete would have been 1/3 the total |
| height of the perimeter stone so that a pool of water was provided for floating the next |
| layer of core blocks into place. The bottom layer of perimeter / facia blocks were locked |
| into position by at least one row of blocks against the foundation until the second tier |
| of perimiter blocks were placed into position and topped by the concrete fascia angle |
| cofferdam. |
| If they could only move blocks during the flood season where did they store the blocks? |
| They already had a reservoir wall built around the pyramid base and that's where the |
| blocks were stockpiled. Suppose that a maximum number of blocks could be placed or |
| supplied in a certain length of time. That would be referred to as a "choke point". |
| though rain may have never been a factor, water temperature in the assembly pool would |
| have an effect on worker health. Labor was probably concentrated on production of |
| building blocks during cool weather. |
| The pyramid itself would have had an effect on the workpool water temperature. |
| Stones were sorted for height in the lower pool. |
| During construction water pumpimg maintained a level in lower and upper pools. |
| Each time a stone was raised into the upper pool a like volume of water was lowered |
| down the row of locks in the assembly line located at each corner of the pyramid. Thus |
| during construction pumping was only required for leaks and evaporation in both pools. |
| by pumping from the river to the causeway to the lower pool to the upper pool |
| During full fledged construction season work would have been non-stop day and night. |
| Delivery time per block would have been constant, number of crew placing blocks varied |
| to assure that placement speed was a little faster than delivery speed. Operation of the |
| lock doors would have been tweaked/ speeded up by installing multiple sliding valves |
| in the lock doors. |
| According to Petries measurements the tiers varied in height and were leveled every 7th |
| tier.Important as it indicates the depth of the pool for the tallest stones. |
| Water, Specific Gravity. = 1.0 |
| One Gallon of water = 231 cubic inches =8.8345 Lbs. |
| To displace (float) 1 cubic foot of limestone requires 232.1538 cubic inches of air float. |
| Dimensions of blocks, average. L x H 28.2941172" x W 22.235" |
| Depth of lock rest perpendicular to pyramid corner = 31.44" |
| Thickness of vertical lock walls perpendicular to pyramid corner = Up to 4.545" thick |
| minus the width of two side floats. |
| required per tier. The bottom 1/3 mol of each upper tier lay inside 1/2 height of the preceeding layer not counting the fascia angle. |
| Height of blocks = height necessary per tier minus the height of the angled Facia |
| 1 |
| 3x3=9 |
| 5x5=25 |
| 7x7=49 |
| 9x9=81 |
| 13x13=169 |
| 15x15=225 |
| 17x17=289 |
| 19x19=361 |
| 21x21=441 |
| 23x23=529 |
| 25x25=625 |
| 27x27=729 |
| 29x29=841 |
| 31x31=961 |
| 33x33=1089 |
| 35x35=1225 |
| 37x37=1369 |
| 39x39=1521 |
| 41x41=1681 |
| 43x43=1849 |
| 45x45=2025 |
| 47x47=2209 |
| 49x49=2401 |
| 51 = 2601 |
| 25 Tiers+Cap |
| 53x53=2,809 |
| 55x55=3025 |
| 57x57=3249 |
| 59x59=3481 |
| 61x61=3721 |
| 63x63=3969 |
| 65x65=4225 |
| 67x67=4489 |
| 69x69=4761 |
| 71x71=5041 |
| 73x73=5329 |
| 75x75=5625 |
| 77x77=5929 |
| 79x79=6241 |
| 81x81=6561 |
| 83x83=6889 |
| 85x85=7225 |
| 87x87=7569 |
| 89x89=7921 |
| 91x91=8281 |
| 93x93=8649 |
| 95x95=9025 |
| 97x97=9409 |
| 99x99=9801 |
| 101 = 10,201 |
| One Hundred Tiers + Capstone, Stones Per Tier,Avg |
| 103=10609 |
| 105=11025 |
| 107=11449 |
| 109=11881 |
| 111=12321 |
| 113=12769 |
| 115=13225 |
| 117=13689 |
| 119=14161 |
| 121=14641 |
| 123=15129 |
| 125=15625 |
| 127=16129 |
| 129=16641 |
| 131=17161 |
| 133=17689 |
| 135=18225 |
| 137=18769 |
| 139=19321 |
| 141=19881 |
| 143=20449 |
| 145=21025 |
| 147=21609 |
| 149=22201 |
| 151 = 22801 |
| 153=23409 |
| 155=24025 |
| 157=24649 |
| 159=25281 |
| 161=25921 |
| 163=26569 |
| 165=27225 |
| 167=27889 |
| 169=28561 |
| 171=29241 |
| 173=29929 |
| 175=30625 |
| 177=31329 |
| 179=32041 |
| 181=32761 |
| 183=33489 |
| 185=34225 |
| 187=34969 |
| 189=35721 |
| 191=36481 |
| 193=37249 |
| 195=38025 |
| 197=38809 |
| 199=39601 |
| 201 = 40401 |
| One Hundred Tiers, Stones Per Tier, Average |
| 203=41209 |
| 205=42025 |
| 207=42849 |
| 209=43861 |
| 211=44521 |
| 213=45369 |
| 215=46225 |
| 217=47089 |
| 219=47961 |
| 221=48841 |
| 223=49729 |
| 225=50625 |
| 227=51529 |
| 229=52441 |
| 231=53361 |
| 233=54289 |
| 235=55225 |
| 237=56169 |
| 239=57121 |
| 241=50081 |
| 243=59049 |
| 245=60025 |
| 247=61009 |
| 249=62001 |
| 251 = 63001 |
| 11x11=121 |
| 153,425 |
| 50 to 75 Tiers |
| 75 to 100 Tiers |
| 100 to 125 Tiers |
| 125 to 150 Tiers |
| 150 to 175 Tiers |
| 403 = 162409 |
| 301 = 90601 |
| 351 = 123201 |
| 401 = 160801 |
| 405 = 164025 |
| 407 = 165649 |
| 175 to 200 Tiers |
| 253=64009 |
| 255=65025 |
| 257=66049 |
| 259=67081 |
| 261=68121 |
| 263=69169 |
| 265=70225 |
| 267=71289 |
| 269=72361 |
| 271=73441 |
| 273=74529 |
| 275=75625 |
| 285=81225 |
| 277=76729 |
| 279=77841 |
| 281=78961 |
| 283=80089 |
| 287=82369 |
| 289=83521 |
| 291=84681 |
| 293=85849 |
| 295=87025 |
| 297=88029 |
| 299=89401 |
| 303=91809 |
| 305=93025 |
| 353=124609 |
| 355=126025 |
| 201 Tiers |
| 202 Tiers |
| 203 Tiers |
| 307=94249 |
| 309=95481 |
| 357=127449 |
| 359=128881 |
| 311=96721 |
| 313=97969 |
| 361=130321 |
| 363=131769 |
| 315=99225 |
| 317=100489 |
| 365=133225 |
| 367=134689 |
| 319=101761 |
| 321=103041 |
| 369=136161 |
| 371=137641 |
| 323=104329 |
| 325=105625 |
| 373=139129 |
| 375=140625 |
| 327=106929 |
| 321=103041 |
| 377=142129 |
| 379=143641 |
| 331=109561 |
| 333=110889 |
| 381=145161 |
| 383=146689 |
| 335=112225 |
| 337=113569 |
| 385=148225 |
| 387=149769 |
| 339=114921 |
| 341=116281 |
| 391=152881 |
| 393=154449 |
| 343=117649 |
| 345=119025 |
| 395=156025 |
| 397=157609 |
| 346=119716 |
| 347=120409 |
| 399=159201 |
| 389=151321 |
| 409 = 167281 |
| 204 Tiers |
| Pyramid base length = 756 Feet |
| Stones per base length = 409 stones |
| Length per base stone =1.8481 = 22.18 " |
| OR 3.69682151' = 44.36" |
| OR 7.39364' = 88.72368" |
| The width of each tier shrinks by 2 x thickness of the perimeter stone |
| The perimeter stone and inner floor partner were most precise. |
| to accomodate the higher stones additional rows of perimeter were erected |
| to meet required depth while maintaing angle. |
| Lock height was varied to fit the stones.Lock walls were up to 3.5" thick. |
| The upper lock rested on the base stone and abutted the Fascia on top of' |
| the perimeter stone on both sides of the lock. |
| This formula yields the size of and number of all blocks in a solid pyramid built of standard size blocks and does not reflect the actual number or size. |
| variable dimension locks accommodated larger stones by placing two or three courses of perimeter stones first for deeper water pool / lock depth, not a problem. |
| 23,425 + 1 |
| 25 to 50 Tiers |
| Mud brick and stucco finish. |
| The lock rested on the non-capped 3 perimeter corner stones. |
| The upper lock box floor extended from the inner corner of the perimeter |
| to the outer corner of the corner perimeter stone. The floor length was equal to |
| the hypotenuse of the corner / perimeter stone. |
| Larger stones required the lock floor to rest on 2 or 3 courses of perimeter. |
| The sideboards were extended to grip on the adjoining perimeter stones. |
| Hypotenuse= the square root of the sum of the two sides squared. |
| Hypotenuse= the square root of the sum of the two sides squared. |
| Hypotenuse=square root of (491.9524) + (491.9524)=sq root of 983.9048 = 31.367" |
| Why not three sides? Any given height and size of of blocks required a certain amount of time to assemble. Time would have been an important parameter to a sitting monarch. Height was another. Suppose that the supply of blocks and labor were abundant. The bigger the blocks the fewer tiers were required for a certain height but a certain angle was required to provide support for locks.. A three cornered pyramid could have slowed the building time by 25% and it would have required a greater volume of stone. It's very probable that four assembly lines were preferable to three. Could the Egyptians have dammed up the Nile to keep the water level steady all year around and used locks? The Egyptians built dams and locks before they ever dreamed of building pyramids. When and if the egyptologists ever discover the remains of a dam in the nile it will be constructed the same way as the pyramid perimeter walls were built. The bases of such dams would have slowly subsided if the base blocks were layed on any base but solid stone. A base layer may still be in place buried under silt while the upper blocks would have been floated away and be put to some other use. |
| 408,425 |
| 788,425 |
| 1,285,605 |
| increased in length and width by two units. |
| The topmost single stone sat on the center of 9 stones. Each tier, up or down, shrank or |
| 2,579,555 |
| 1,923,245 |
| 3,438,425 |
| 162,409 |
| 164,025 |
| 165,649 |
| 167,281 |
| 25 Tiers 153,425 |
| 25 Tiers 23,425 |
| 25 Tiers 408,425 |
| 25 Tiers 788,425 |
| 25 Tiers 1,285,605 |
| 25 Tiers 2,579,555 |
| 25 Tiers 1,923,245 |
| 25 Tiers 3,438,425 |
| +162,409 |
| +164,025 |
| +165,649 |
| +167,281 |
| One Tier 1 |
| 201 Tiers 10,447,106 |
| 202 Tiers 10,609,515 |
| 203 Tiers 10,773,540 |
| 204 Tiers 10,939,189 |
| 205 Tiers 11,106,470 |
| Why not three sides? Any given height and size of of blocks required a certain amount of time to assemble. Time would have been an important parameter to a sitting monarch. Height was another. Suppose that the supply of blocks and labor were abundant. The bigger the blocks the fewer tiers were required for a certain height but a certain angle was required to provide support for locks.. A three cornered pyramid could have slowed the building time by 25% and it would have required a greater volume of stone. It's very probable that four assembly lines were preferable to three. Could the Egyptians have dammed up the Nile to keep the water level steady all year around and used locks? The Egyptians built dams and locks before they ever dreamed of building pyramids. When and if the egyptologists ever discover the remains of a dam in the nile it will be constructed the same way as the pyramid perimeter walls were built. The bases of such dams would have slowly subsided if the base blocks were layed on any base but solid stone. A base layer may still be in place buried under silt while the upper blocks would have been floated away and be put to some other use. The boats that were found next to the pyramids are built of cedar from Lebanon. |
| Man Power Requirements Some people will insist that slaves were used. That's pretty doubtful as it's hard enough to get a days work out of a disinterested slacker that's paid. The labor had to be motivated, fed, paid, medicated, and sober during working hours and have a day off for rest every so often, probably every seventh day. Every lock would have required four people to operate, two to lift the door and two equipped with poles to push the floating stones through the open lock door. Speed was at a premium. Two men operated the two-stage lock door. The first lift opened the sliding valves within the door by means of wires attached to the lift rod which passed thru eye guides mounted near the top of the door and attached to sliding gate valves built into the door. As soon as the water drained from the upper chamber to the lower chamber and equalized the level the gate was raised and two men with poles pushed the stone into the upper chamber and closed the gate. As soon as that gate was closed the next lower gate was opened, the stone floated up one level, pushed through the gateway, the gate closed and so on. This was a speedy operation and though the number of locks varied up to 204 the speed never changed and only depended on the slowest lock operators in the chain. The speed at which a stone could be raised always exceeded the act of pushing the stone into the next lock. If all the tiers had been uniform in height there could have been 204 locks on each corner of the pyramid. It is quite likely that the number of locks would have been maximized. It's quite possible that one stone every ten seconds per lock was raised. 6 stones per minute, 360 stones per hour, 8,640 per 24 hours, 34560 with 4 locks daily. Pond algae growth was probably encouraged as any fine fiber would aid in sealing the ponds. |
| Our Imaginary Pyramid could be raised in 321 days not counting time required for sealing the floors and walls of the upper basin or the foundation preparation, lower sorting pond and causeway construction or supply and preconstruction. |
| Dirty water with an oil slick would heat up and stay heated without evaporation. |
| Now you might say "But some of those block are huge and won't fit those little locks, |
| dimension would be (62.88" wide x 56.4" high x Length). This size lock could be used |
| to lift the perimeter stones with float(s) attached on top or ends. Once the stone reached |
| the upper pool floats could be re-arranged to facilitate installation of the perimeter stone. |
| What did they use for floats?. Float material depended on the environment. Animal skins |
| very useful in the upper pool for manuevering stones into position. A simple bellows |
| with flap valves would have been sufficient for inflation. Bamboo would have been the |
| most useful for transport in the nile if it was available. |
| Well, they made locks that were twice as high and twice as wide. The lock interior |
| could not be used in the nile, they would have been eaten, but they would have been |
| Quarrying, Moving, Polishing, Installing, and Carving the Needles |
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| This dissertation is covered by copyright law and is authored by surfcams1 a.k.a. Lambadafan Ed in 1997. |
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| Stones, Additional single tiers |