RABMEC, J. A. Giannini (9/21/2012)
Return to Appendix Table of Contents
.
COMPARISON OF THE RABMEC TIMELINE WITH THE NEW CHRONOLOGY OF DAVID ROHL
What is Rohl’s
New Chronology?
The traditional biblical chronology is based on the genealogies of the
Hebrew patriarchs and kings in the Bible.
However, it is well known that the historical record offers little
support for the derived dates of the notable events.
David Rohl (1) modified the traditional chronology dates based on
astronomical considerations stated in the Bible and non-biblical historical
records that support the biblical events but indicate the traditional dates are
misplaced in time. His New Chronology
produces a better fit between the Bible and the historical record.
The RABMEC (2) chronology developed in this work provides a
different modification of the traditional chronology. It agrees with Rohl
in some respects and differs in others.
The defining assumption in RABMEC is the length of the Babylonian Exile. The traditional chronology and Rohl’s chronology assume the Exile length is 70 years as given by Jeremiah’s prophesy. Instead, RABMEC uses Daniel’s prophesy, "a time, times, and a half". It then determines the Exile length based on comparisons of biblical kings and events with named Babylonian and Egyptian kings.
One consequence of this is that
RABMEC pushes the beginning of the Exile to the time of Nebuchadnezzar I rather
than the second of that name as is traditionally assumed. This
pushes the biblical Flood back about 1000 years from the traditional date to
3113 BC. This new Flood date is the same
as the date David Rohl determined.
Another consequence is to push
the Exodus further back in time to 2100 BC which differs from Rohl’s 1447 BC date.
The two dates are supported by different eruption events and also by
different dating of an historical Egyptian papyrus.
What does this appendix do?
Following Rohl’s lead, I take the position
that many events critical to the biblical timeline are associated with natural
catastrophes. This appendix compares the
RABMEC, Rohl and traditional chronologies by
identifying the recognized volcanic eruptions and impacts that are closest to
the catastrophic “acts of God” in each timeline. (See Table F.1). The traditional timeline is referred to as
the Standard TimeLine (STL).
The comparisons are based primarily on three works. Palmer (3) provides a detailed
discussion of catastrophism and natural catastrophes. Lewis (4) discusses comets and
meteors in detail and the cycles of Earth impacts. And Oppenheimer (5)
presents details of the most devastating volcanic eruptions that had a global
impact.
In addition to the biblical timeline, there are comparisons of the
Egyptian dynastic timeline (Table F.2) and the Sumerian/Babylonian dynastic
timeline (Table F.3).
In the three tables below, the numbers in ( ) indicate the difference
in date from RABMEC. At the bottom of
the tables are average differences for several temporal ranges. The averages are not meant as statistically
significant measures. They are simply
indicative of trends showing where there is general agreement with RABMEC.
Table F.1 This shows a comparison of RABMEC BC dates for
biblical events with Rohl and the STL. The numbers in
[ ] indicate the relative years since the birth of Adam.
Biblical
Event |
RABMEC |
Rohl (1) |
STL (6) |
Anno Mundi Egypt. beginning of world |
5538 R&P flood event(7,8) |
|
|
Adam birth |
4769[0] |
5375[0] (-606) After R&P flood |
3950[0] (819) |
Noah birth |
3713[1056] |
3713[1662] (0) |
2894[1056] (819) |
Flood |
3113[1656] Wooley
debris (9) & Impact
~3114 (10) |
3113[2262] (0) Eruption 3119 (11)
& Impact ~3114+? (10) |
2294[1656] (819) Impact 2300 (13) |
Abraham birth |
2823[1946] |
1900[3475] (932) |
2001[1949] (822) |
Abraham sojourn in Egypt |
No name Divided kingdom |
Pharaoh Khety IV 10th dyn,1876-1847 |
Phar. Ammenemes I (14) 12th dyn,
c.1985-1955 |
Isaac birth |
2723[2046] |
1842[3533] (881) |
1901[2049] (822) |
Sodom & Gomorrah |
~2711 Impact ~2700+? (15) |
1830[3545] (881) Eruption ~1830 (17)
|
~1889[2049] (822) Impact ~1900 (18) |
Joseph birth |
2572[2197] |
1696[3679] (876) |
1750[2200] (447) Or 1832[2118] (365) |
Joseph’s pharaoh- dynasty Astronomical data(1,
page 168) |
Usaphasis-1st 2475-2449 No data |
Amenemhat
III-12th 1678-1634 Good data agree. |
No name-12th Dyn.
1750-1650 (14) Or Ammenemes III- 14th
1854-1808 (14) Poor data agree. |
Joseph death |
2462[2307] |
1617[3758] (845) |
1640[2310] (824) |
Exodus, Pharaoh Ipuwer Papyrus date (19) (6th dyn or 13th dyn) |
2103[2666] Phiops,
6th dyn Eruption ~2100
(20) date 1 agreement |
1447[3928] (656) Dudimose,
13th Eruption 1500+? (22) date 2 agreement |
1280[2670] (823) (6) Ramesses
I, 19th (14) Impact ~1200+?
(23) Or 1496[2454] (607) (6) Tuthmosis
I, 18th (14) Eruption ~1500+? (23) |
Joshua Jericho destruction Eclipse date (1, page
243) |
2058 [2711] Eruption &Impact 2055+37 (20) no data |
1406[3969] (652) Eruption ~1400
(24) Good date agree. 1000 year gap in archaeology |
1240[2710] (818) (6) ? Impact ~1200
(23) No data Or 1456[2494] (620) (6) Eruption 1400
(24) No data |
King David |
1667[3102] |
1011[4364] (656) |
1060[2890] (607) |
Babylonian Exile begins Babylonian king |
1204[3565] Nebuchadnezzar I |
599[4776] (605) Nebuchadnezzar II |
606[3346] (598) Nebuchadnezzar II (25) |
Babylonian Exile ends |
539[4230] |
539[4836] (0) |
536[3412] (-3) |
------------ |
------------ |
------------ |
------------ |
avg. diff. Total |
|
490.5 |
695.2 |
avg. diff. Adam-Flood |
|
-202 |
818 |
diff. Flood |
|
0 |
819 |
avg. diff. Abram-Jericho |
|
817.6 |
768.3 |
avg. diff. David-Exile |
|
630.5 |
602.5 |
Exile length |
665 |
60 |
70 |
Table
F.2
This shows a comparison of RABMEC BC dates for the historic
Egyptian dynasties with Rohl and the STL. The blank fields indicate unavailable
data.
Dynasty |
RABMEC (2012) |
(1998) (14) James |
Rohl (1) (2002) |
Early
Dynastic |
|||
1 |
2638 |
3100 (-462) |
2770 (-132) |
2 |
2484 |
2890 (-406) |
2670 (-186) |
Old
Kingdom |
|||
3 |
2454 |
2686 (-232) |
2554 (-100) |
4-5 |
2381 |
2613 (-232) |
2499 (-118) |
6 |
2254 |
2345 (-91) |
2273 (-19) |
Middle
Kingdom |
|||
7-8 |
2090 |
2181 (-91) |
2073 (17) |
9-11 |
2034 |
2160 (-126) |
2018 (16) |
12 |
1899 |
1985 (-86) |
1803 (96) |
13-14 |
1739 |
1795 (-56) |
1632 (107) |
15-17 |
1555 |
1650 (-95) |
1439 (116) |
New
Kingdom |
|||
18 |
1452 |
1550 (-98) |
1202 (250) |
19 |
1244 |
1295 (-51) |
962 (177) |
20 |
1139 |
1186 (-47) |
865 (274) |
21 |
1023 |
1069 (-46) |
842 (190) |
22-24 |
909 |
945 (-36) |
822 (87) |
Late
Period |
|||
25 |
729 |
747 (-18) |
769 (-40) |
26 |
647 |
664 (-17) |
656 (-9) |
27 |
528 |
525 (+3) |
|
28-29 |
404 |
404 (0) |
|
30 |
378 |
380 (-2) |
|
Estate
Period |
|||
31 |
341 |
342 (-1) |
|
------------ |
------------ |
------------ |
------------ |
avg. diff.
for dyn 1-6 |
|
(-248.6) |
(-111) |
avg. diff.
for dyn 6-17 |
|
(-90.8) |
(43.4) |
avg. diff.
for dyn 6-26 |
|
(-66.0) |
(95.5) |
avg. diff.
for dyn 6-31 |
|
(-50.5) |
(95.5) |
Table
F.3 This shows a comparison
of RABMEC BC dates for the Sumerian/Babylonian dynasties with Rohl and the STL.
The blank fields indicate unavailable data.
Dynasty |
RABMEC |
Rohl (1) |
STL (25) |
|
Eridu |
2k, 5538-5028 |
|
|
|
Badtibura |
3k, 5027-4170 |
|
|
|
Akash |
6k, 4169-4070 |
pre-flood
? – 3112 (?) |
|
|
Kish III |
9k, 4070-3928 |
1k, 2192-2183(1878) |
|
|
Kish IV |
7k, 3928-3437 |
7k, 2182-2052(1800) |
|
|
Erech I |
1k, 3437-3113 |
1k, 3000-? (437) |
|
|
Flood |
3113 |
3113(0) |
|
|
Erech I (con’t) |
11k, 3113-2879 Gilgamesh 3039 Lugalkidul 2915 |
From Kish 1B, 10k, 3112-2398(1) |
Gil. 2400(639) Lug. 2380(535) |
|
11k, 3000-2249(113) 3k, 2248-2130(631) |
||||
Erech II |
3k, 2879-2869 |
|
|
|
Ur I |
4k, 2869-2753 Elulu 2814 |
5k, 2365-2189(504) |
Elulu 2421 (393) |
|
Awan |
3k, 2753-2747 |
|
|
|
Kish II |
8k, 2747-2681 Uruka-Gina 2684 |
8k, 2397-2193(350) |
Ur.-Gina 2351(333) |
|
ErechIII/Agade |
11k, 2681-2484 |
9k, 2129-1937(552) |
2340-2154(341) |
|
Erech IV |
5k, 2484-2454 |
5k, 1940-1911(544) |
|
|
Gutium |
21k, 2454-2363 Tiri-gan 2363 |
21k, 2000-1908(454) |
Tiri-gan 2130(233) |
|
Erech V/Ur II |
5k, 2363-2247 |
5k, 1910-1785(453) |
2112-2004(243) |
|
Isin I |
14k, 2247-2044 |
15k, 1805-1507(442) |
2017-1794(230) |
|
1st Babylonian |
11k, 2044-1744 Hammurabi 2004 |
11k, 1667-1362(377) Hammurabi 1565(439) |
1894-1595(150) Hammurabi 1792(212) |
|
1st Sealand |
1886-1518 |
|
|
|
Kassite |
19k, 1518-1310 K.-Enlil
II 1410 Marduc 1325 |
|
1374-1155(144) K.-Enlil
II 1263(147) Marduc 1171(203) |
|
Chaos |
Chaos 1310-1237 |
|
|
|
Mixed |
1255-729 |
|
1025-979(230) |
|
Isin II |
1237-1105 Nebuchadnezzar I 1208 |
|
1157-1026(80) Neb. I 1125(83) |
|
Assyrian |
732-626 Tiglath-P III 729 |
|
731-626(1) Tiglath-P III 729(0) |
|
Chaldean |
626-538 Nebuchadnezzar II 605 |
|
625-539(1) Neb. II 605(-1) |
|
------------ |
------------ |
------------ |
------------ |
|
avg.diff flood-Erech I |
|
(0.5) |
(639) |
|
avg.diff flood-1st Babylon |
|
(367.7 ) |
(321.0) |
|
avg.diff 1st B.-Chaldean |
|
|
(91.2) |
|
.
References/Notes
1 D. Rohl, From Eden to Exile, The 5000-year History of the People of the Bible, Greenleaf Press, Lebanon, TN (2002)
2 J.A. Giannini, Revised Ancient Biblical and Mid-East Chronology (RABMEC) Timeline,
Chapter 2 www.jagnetbooks.org (2012)
3 T. Palmer, Perilous Planet Earth,
Catastrophes and Catastrophism through the Ages, Cambridge Univ. Press,
Cambridge, UK (2003)
4 J.S. Lewis, Rain of Iron and Ice, Perseus Publishing, US (1997)
5 C.
Oppenheimer, Eruptions That Shook the World, Cambridge Univ. Press, Cambridge,
UK (2011)
6 W.C. Martin, These Were God’s People, A Bible History, The Southwestern Company, Nashville, TN (1966)
7 W. Ryan and W. Pitman, Noah's Flood, the New Discoveries about the Event That Changed History, Simon and Shuster, (1998)
8 According to Ryan and Pittman, the Black Sea flood
event was the result of a breach in the ice dam separating the ocean from the
fresh water lake. This event was likely
the result of sudden but prolonged climate change. According to Oppenheimer (5, page 355)
at around this time, there were several major eruptions that would have had a
global impact. Among them are: 5480 BC,
Kikai, Ryuku Islands (Me 7.2); 5677 BC, Mazama,
Oregon (Me 7.1); 6000 BC, Menengai,
Kenya (Me 6.9).
9 L. Wooley, and P.R.S. Moorey,
Ur of the Chaldees:
A Revised and Updated Edition of Sir
Leonard Wooley's Excavations at Ur, Cornell Univ.
Press, Ithaca, NY (1982)
10 D. Steel, Rogue Asteroids and Doomsday
Comets, John Wiley & Sons, NY (1995)
11 Rohl (1, page 48) describes the effects of a massive volcanic eruption in 3119 BC that caused global climate shifts. Fierce winters and cooler summers allowed ice buildup resulting in drought conditions in Mesopotamia. Toxic dense cloud cover resulted in acidification of the water supply. Final clearing of the atmosphere took about 6 years and the final warming permitted ice melting that lead to the massive flood conditions in 3113 BC. Kropelin (12) describes similar conditions in North Africa at the same time. Oppenheimer (5, page 355) identifies the massive eruption of Black Peak, Alaska (Me 6.5) at ~3000 BC lending credence to the global nature of the climate devastation.
12 S. Kropelin, et al., Climate-Driven Ecosystem Succession in the Sahara: The Past 6000 Years, Science, vol. 320, 9 May 2008, p 765
13
Palmer (3, page 120,
340) relates that Schaeffer (1898-1982) concluded that the Earth suffered wide-spread
devastation on at least five occasions beginning ~2300 BC. He identified the other events at ~2100 BC,
~1600 BC, 1365 BC and ~1200 BC. The
source of the impact was not identified.
14 T.G.H. James, A Short History of Ancient Egypt, The Johns Hopkins Univ. Press,
Baltimore, MD (1995)
15
Palmer (3, page 342)
relates that Bruce Masse indicated at
least 20 impacts over the last 6000 years resulting in global destruction. He identified the most significant at ~2800
BC. Clube and
Napier (3, page 339, and 16) relate that Enke
comet has an Earth-crossing orbit every ~20,000 years. Two identified breakups (~7500 BC and ~2700
BC) likely produced impacts around those times.
Lewis (4, page 48) indicated that the Enke
comet was responsible for the two Taurrid meteor
streams producing destructive impacts ~2700 BC and in the 5th
century AD. He notes the Taurrid meteor stream was responsible for the particularly
destructive Tunguska impact in Siberia in 1908 AD.
16 V. Clube and B.
Napier, The Cosmic Serpent, Universe Pub, (1982)
17 Rohl (1, page 121) and
Palmer (3, page
340) describe the
destruction of Sodom and Gomorrah as the result of a volcanic eruption from the
geological rift extending along the Jordan Valley. Rohl identifies the
time as 1830 BC. The exact location of
both cities is uncertain but generally believed to be along the Dead Sea.
18 Lewis (4, page 35) describes the exploration of John Philby in 1932 in the central Arabian Peninsula of Rub’ al Khali where he found craters he interpreted as volcanic. Discovery of an iron meteorite fragment later confirmed the impact origin which dated to ~1900 BC. No meteorite fragments have been found in the Dead Sea area. But it is conceivable that a meteor stream could have resulted in an impact into the sea at the same time.
19 According to Roger Henry (Synchronized Chronology, Algora Publishing, 2003), the Papyrus Ipuwer is a seventeen page document known as “Admonitions of an Egyptian Sage”. Several parts are missing and almost every page is fragmentary. According to Wikipedia, the document in the Leiden Museum is a copy made around the 18th dynasty (ca. 1550-1295 BC). The time of its original composition is debated. Some say as early as the 6th dynasty (2254-2090 BC RABMEC) and some say as late as the 13th dynasty (ca. 1802-1649 BC STL, 1632-1439 BC Rohl). The papyrus describes catastrophes that have a striking resemblance to the plagues and conditions of the biblical Exodus. Scholars debate whether it is a description of current events or historical reference.
20 Palmer (3, page 210, 340, and 12) indicates Schaeffer’s second major impact in the early Bronze Age was ~2100 BC. Oppenheimer (5, page 355) indicates that a volcanic eruption in 2100 BC at Veniaminof, Alaska (Me 6.7) would have had a global climate impact that could have contributed to the Exodus conditions. Weiss (21) describes archaeological and soil-stratigraphic data showing climate collapse of third millennium in Mesopotamia, the Aegean, Egypt, Palestine and the Indus supporting the global impact of the eruption. At 2200 BC a marked increase in aridity and wind circulation subsequent to a volcanic eruption induced abrupt climate change effects. Climate effects were visible in Greenland ice cores and Anatolian tree-ring records beginning in 2200 BC with reduced and irregular ring growth continuing thru 2055-2043 + 37 BC. A further support for the 2100 BC date comes from one dating of the Ipuwer Papyrus (19) in the 6th dynasty.
21 H. Weiss, et al., The Genesis and Collapse of Third Millennium North Mesopotamian Civilization, Science, vol. 261, 20 August, 1993, p995
22 Rohl (1, page 206) identifies the departure from Egypt as taking place in 1447 BC. His exit date is tied to Dudimose, the 13th dynasty pharaoh whom he dates as 1450-1446 BC. A support of this pharaoh is one dating of the Ipuwer Papyrus (19) in the 13th dynasty. The climate effects associated with the Exodus can be associated with an eruption or an impact. Oppenheimer (5, page 355) identifies the nearest volcanic eruption with a global climate impact at Santorine, Greece (5, page 230) 1500 BC or as late as 1600 BC. Fallout from the eruption is seen to the northeast of Turkey and to the south in North Africa. Oppenheimer notes that uncertainty in the atmospheric carbon-14 makes dating around this time particularly difficult. He also notes that this eruption coincides with end of Minoan 1B (1490-1476 or 1425-1420). Rohl’s 1447 BC Exodus date should be close to the eruption dating uncertainty.
23 According to Martin (6), the traditional date of the Exodus is a matter of debate, as recent as 1280 BC or as late as 1496 BC. The 1496 BC date is consistent with the Ipuwer Papyrus 18th dynasty date and can be associated with one of the Santorini eruption dates. Like Rohl’s Jericho event, the STL Jericho date of 1456 BC is consistent with the other eruption ~1400 BC. The other STL Exodus date 1280 BC and its companion Jericho 1240 BC date are more difficult to account. Schaeffer’s ~1200 BC impact event (13) can only account for one of the events unless it was more extended or other evidence of catastrophes becomes obvious. As it stands, 1500 BC Santorini eruption (22) seems to support the Ipuwer Papyrus date for the Exodus better than the 1280 BC Exodus date.
24 Rohl (1, page 237) identifies the events at Jericho as taking place in 1406 BC, 40 years after the Exodus. He notes that archaeological evidence for the 40-year wandering in the desert is lacking. Oppenheimer (5, page 355) identifies the nearest volcanic eruption with a global climate impact in ~1400 BC at Witori, Papua New Guinea (Me 6.5). The distance from the eruption site seems large and except for the global climate effects appears an unlikely correlation. However, eruptions of such magnitude can be observed over great distances. The Tambora (5, page 298) eruption in Indonesia in 1812 AD was heard over 2600 km away in Sumatra. Thick black clouds completely blocking the sun covered the sky as far as 600 km away for two days after the eruption. And tremors were felt over 360 km. Of course the distance that any eruption is felt is a detail of the nature of the eruption and the geological environment of the volcano. Rohl’s Jericho destruction date of 1406 BC should be within the eruption dating uncertainty.
25 G.P. Verbrugghe and
J.M. Wickersham, Bosseros
and Manetho Introduced and Translated: Native
Traditions in Ancient Mesopotamia and Egypt, Univ. of Michigan Press, Ann
Arbor (2001); A.L. Oppenheimer, Ancient
Mesopotamia: Portrait of a Dead Civilization, Univ. of Chicago Press (1977)
.