Introduction

Recent carbon dating from the Bluestone quarry sites offers compelling and irrefutable mathematical evidence that Stonehenge’s construction dates back to the Mesolithic era. This new data suggests Stonehenge is 5000 years older than experts had previously believed, challenging established views on its origins and adding new depth to our understanding of this ancient monument (The Stonehenge Code).

Papers by researchers from the University of London, Southampton, and Manchester, including Mike Parker-Pearson and his team, have significantly advanced our understanding of Stonehenge’s origins. The discoveries at the Craig Rhos-y-Felin quarries and the bluestone megaliths at Carn Goedog, which reveal that Stonehenge may have been initially built in Wales and then transported to Salisbury Plain 500 years later, are no longer credible.

This groundbreaking revelation has captivated archaeologists worldwide and challenged previous beliefs about the construction of Stonehenge. The idea that these bluestones were quarried, shaped, and then moved to Salisbury Plain offers a deeper understanding of prehistoric people’s capabilities and social organisation.

The transport of these massive stones over such a distance, centuries after their initial quarrying, suggests remarkable dedication and coordination. It highlights the profound significance these stones—and the monument they form—held for ancient communities.

As an enthusiast of ancient civilisations, I find this research thrilling. It deepens our appreciation for the ingenuity and spiritual dedication of our ancestors, opening new avenues for exploring cultural and religious connections across prehistoric Britain. (The Stonehenge Code)

Craig Rhos-Y-Felin

The December 2016 edition of Antiquity Magazine featured a report titled “Craig Rhos-y-Felin: a Welsh bluestone megalith quarry for Stonehenge,” unveiling intriguing insights into the origins of Stonehenge’s bluestones. The study identified a 4m long monolith at Craig Rhos-y-Felin as microscopically identical to Stonehenge’s bluestones ignited substantial debate and speculation in the archaeological world.

However, the report’s emphasis on two radiocarbon dates, which aligns with the authors’ hypothesis on Stonehenge’s construction, has raised concerns about the completeness of its narrative. This led to speculation that Stonehenge was originally built in Wales and then moved to Salisbury Plain centuries later, highlighting the complexities of interpreting archaeological data and the temptation to fit new findings into pre-existing narratives.

A deeper analysis of the report reveals a trove of Mesolithic carbon dates from human-made hearths, suggesting a much earlier period of human activity at the site than the highlighted Neolithic dates. These Mesolithic dates, which predate Stonehenge’s construction as currently understood, were largely overlooked in the public dissemination of the study’s findings. (The Stonehenge Code)

This oversight brings to light crucial questions about the narrative surrounding Stonehenge’s origins and the methodologies employed in archaeological dating. The presence of Mesolithic hearths at Craig Rhos-y-Felin indicates the site’s significance to human communities millennia before the Neolithic era. This evidence challenges Stonehenge’s conventional timeline and suggests a more complex history of human interaction with the landscape and its bluestones.

Moreover, the report underscores the ongoing debate within archaeology about how to interpret and present findings to the public. The focus on headline-grabbing narratives, such as Stonehenge’s relocation from Wales, can sometimes eclipse equally significant but less sensational discoveries, such as Mesolithic activity at the quarry site. (The Stonehenge Code)

Stonehenge Old Car Park

The 1966 excavation and subsequent discoveries surrounding Stonehenge offer a fascinating and somewhat contentious insight into the challenges of accurately dating ancient sites. Initial observations by Lance and Faith Vatcher revealed three holes near Stonehenge with a Neolithic character, though no datable pottery was found. Yet, the characteristics of the holes suggested a Neolithic origin. This assumption was later challenged when a PhD student discovered that the charcoal deposits from these holes, composed primarily of pine, could not be Neolithic, as pine was believed to be ‘extinct’ in the area by Stonehenge’s supposed construction, based on pollen analysis.

This revelation was startling, particularly to officials from the Historic Buildings and Monuments Commission, now known as English Heritage. Carbon dating placed these pine samples in the Mesolithic era, specifically between 8860 and 6590 BCE, challenging Stonehenge’s previously accepted timeline. Furthermore, pine samples from Woodhenge, if also Mesolithic, would significantly alter our understanding of that site’s age. (The Stonehenge Code)

Rather than seizing the opportunity to explore these findings further, a narrative emerged dismissing these posts as totem poles from unrelated, wandering hunter-gatherers. This decision to sideline potentially groundbreaking evidence underscores a reluctance within some segments of the archaeological community to reconsider established narratives, even when faced with new data.

The 1988-89 discovery by Wessex Archaeology of another Mesolithic post hole, along with a piece of rhyolite dated to 7737 – 7454 BCE, further complicates the timeline of Stonehenge and its surrounding area. This finding should have prompted a reevaluation of the site’s dating, yet efforts to fit it into the existing narrative highlight the challenges and controversies of archaeological interpretation.

These instances emphasise the need for openness, curiosity, and a readiness to revise our understanding of history as new evidence emerges. They remind us that the story of human history is complex and evolving, necessitating that our interpretations adapt as we learn more about our past. (The Stonehenge Code)

Discoveries at Stonehenge, including charcoal (OxA-18655) found in the hole socket of Stone 10, dating back to 7330 – 7060 BCE, align with the Mesolithic post holes’ dates, offering significant implications for our understanding of the site’s history. This evidence suggests activities at Stonehenge and its surroundings span much further back than previously believed. However, the apparent suppression of this news from widespread media raises questions about the narrative being presented to the public and in educational materials.

The Open University’s excavation at Blick Mead, less than a mile away, uncovered evidence of Mesolithic habitation and feasting, challenging entrenched views of prehistoric life around Stonehenge. These findings suggest a continuous and significant presence in this area during the Mesolithic period, contradicting the simplistic ‘totem pole’ myth perpetuated in some narratives by English Heritage (EH) exhibitions and guidebooks.

Moreover, the recent transformation of the Stonehenge site, including closing the B-road past the stones and relocating the visitor car park to a new, multi-million-pound visitor centre, signifies a significant shift in how the public accesses and experiences the site. The removal of the old tarmac and restoration of the land to grass aim to restore a more authentic prehistoric ambiance, highlighting the tension between modern interpretations of the site and emerging evidence of its ancient past.

Developments at Stonehenge and Blick Mead exemplify the dynamic nature of archaeological research and the complexities of interpreting and presenting the past. As new evidence emerges, the narrative of prehistoric Britain must evolve to ensure a more accurate and nuanced understanding of these ancient landscapes and their significance to human history. (The Stonehenge Code).

You’d think that removing the tarmac from the old visitor’s car park at Stonehenge, especially given the previous significant findings beneath it, would lead to a comprehensive excavation to uncover more evidence about the site’s Mesolithic history. Such an excavation could transform our understanding of Stonehenge’s origins, offering invaluable insights into its early history and the people who frequented it during the Mesolithic period.

Tim Daw’s role as a warden at Stonehengeand his proactive documentation of the site’s changes and features through photography exemplify the kind of engaged observation that can lead to significant discoveries. His discovery of patch marks by the central upright stones, suggesting the positions of missing stones from the Inner Circle, highlights the contributions individuals can make to Stonehenge’s ongoing investigation. Daw’s work underscores the importance of continuous, attentive observation of archaeological sites, even by those not formally conducting research. (The Stonehenge Code).

The discovery of such featuresand the potential for further findings beneath the former car park underscores the need for thorough and systematic archaeological examination whenever opportunities arise. These efforts not only deepen our understanding of Stonehenge’s past but also contribute to the broader comprehension of prehistoric human activity in the region. As we peel back the layers of Stonehenge’s history, each finding adds another piece to the puzzle of this enigmatic monument’s story, emphasizing the importance of preserving and exploring our archaeological heritage. (The Stonehenge Code).

Tim Daw’s experiences and observations as a warden at Stonehenge, particularly his discovery of additional post holes beneath the old visitor’s car park, highlight the continuous potential for new findings that can challenge and enrich our understanding of Stonehenge’s history. Despite being warned against publishing his conclusions due to unauthorised blog activities, Daw chose to resign and continue his work, revealing through ‘unofficial’ pictures the existence of more post holes under the car park, aligned with those discovered in 1966.

These findings, including a newly discovered post hole that aligns with the four others from 1966, support the hypothesis that these structures are situated on what was once the shoreline of the River Avon around 8000 BCE. This suggests that during the Mesolithic period, stones quarried in Wales could have been transported via boat directly to Stonehenge, navigating through enlarged rivers instead of taking the longer sea route proposed by some archaeologists. (The Stonehenge Code)

Welsh Bluestones

Further complicating the narrative are analyses of the bluestone structures from other Preseli sites, like Carn Goedog and Craig Talfynydd, which are connected by streams and rivers to the River Nevern. Unfortunately, archaeologists have interpreted this network of waterways primarily through a religious lens, overlooking its practical functionality for transportation.

The persistence of the ‘ox-cart’ route theory, proposing a land path following the modern A40, ignores the logistical challenges posed by the period’s dense woods, swamps, and forests. Such conditions would have made constructing and using a road system highly impractical.

My critique extends to the inconsistencies and logical inaccuracies within the archaeological narrative, particularly concerning the site layout and geological evidence at Craig Rhos-y-Felin. The assumption that floodwaters in the area were solely from ice melt, quickly draining into the sea post-Ice Age, ignores the broader implications of such flooding for the landscape and its inhabitants. (The Stonehenge Code).

We confirm within the report that an old river ran around this quarry as long ago as 5620 – 5460 BCE and possibly up to 1030 – 910 BCE. (The Stonehenge Code).

“Most of the site was then covered by a layer of yellow colluvium (035), dated by oak charcoal to 1030–910 cal BC (combine SUERC-46199; 2799±30 BP and SUERC-46203; 2841±28 BP). This deposit is contemporary with the uppermost fill of a palaeochannel of the Brynberian stream that flowed past the northern tip of the outcrop. Charcoal of Corylus and Tilia from the basal fill of this palaeochannel dates to 5800–5640 cal BC (OxA- 32021; 6833±40 BP) and 5620–5460 cal BC (OxA-32022; 6543±37 BP), both at 95.4% probability.”

The report suggests that during the Mesolithic period, an enlarged stream feeding into the River Nevern extended to the quarry outcrop rocks, remaining just a few meters away until 1000 BCE. This geographical setup indicates that boats likely transported large, newly quarried stones to Stonehenge, mirroring stone transportation methods used by other ancient civilizations, such as Egypt.

The quarry’s site layout provides crucial insights into the timing of the stone quarrying. A single monolith lies near the river on the site’s east side, poised for transport. Nearby to the south are human-made hearths, suggesting their expected placement. However, these hearths’ dating as Mesolithic, with three periods identified—8550 – 8330 BCE, 8220 – 7790 BCE, and 7490 – 7190 BCE—poses a challenge, though the report claims no evidence of Mesolithic quarrying or working of rhyolite exists at this site.

This claim overlooks the practical use of tools across different periods. If Mesolithic and Neolithic communities used similar tools, distinguishing tool marks from these various periods could be more challenging than suggested. Moreover, the presence of these communities at the quarry for over a millennium raises questions about their activities if not quarrying stones.

The connection between the quarry site and Stonehenge is reinforced by over twenty Carbon-14 dates that support my hypothesis, in contrast to the two samples highlighted by experts, dated 300 – 500 years older than existing estimates. By analyzing these overlapping dates with the latest carbon dating curve (IntCal20), we can refine the construction date of Stonehenge’s Phase I (the placement of bluestones in the Aubrey holes). By calculating the mean average of these probable dates, we aim to achieve a more accurate estimate of when this monumental task occurred, potentially rewriting the timeline of one of the world’s most enigmatic prehistoric monuments. (The Stonehenge Code).

Stonehenge	Old Car Park (Ref. and Date)	Craig Rhos-Y-Felin Ref	Craig Rhos-Y-Felin Dates	Carn Goedog Ref & Dates
Post Hole A	HAR-455 (8825 – 7742)	SUERC-50761 OxA-30507 OxA- 305481 SUERC-51164 SUERC-50760 OxA-30549 SUERC-51165 OxA-30506 OxA-305482 OxA-305062 OxA-30547 OxA-30504	8550 –  8330 8471 – 8285 8286 – 8163 8289 –  8169 8211 – 7955 8238 – 7941 8216 – 7785 8021 – 7792 8122 – 7962 8207 –  8030 8012 – 7711 8281 –  8166
Post Hole B	HAR–456 (7377 – 6651)	OxA-305032	7232 – 7188	OxA31823 – 7190 to 6840
WA 9580	GU-5109 (8259 – 7742)	OxA- 30548 SUERC-51164 SUERC-50760 OxA-30549 SUERC-51165 OxA-30506 OxA-305482 OxA-305062 OxA-30547 OxA-30504	8286 – 8163 8289 – 8169 8211 – 7955 8238 – 7941 8216 – 7785 8021 – 7792 8122 – 7962 8207 –  8030 8012 – 7711 8281 –  8166
WA 9580	QxA-4219 (7737 – 7454)	Beta-392850 OxA-30547	7944 – 7648 8012 – 7711	OxA-35184 – 7590 to 7380
WA 9580	QxA-4220 (7595 – 7178)	SUERC-51163 OxA-30523 OxA-3050311	7539 – 7308 7472 – 7182 7485 – 7248

Table 1– Matching Carbon Dates

Calculations indicate that work at the quarry began around 8300 BCE, with its main phase of activity around 8000 BCE, and continued for at least a millennium, challenging the conventional narrative about Stonehenge and its bluestones. This timeline suggests a far more ancient and enduring connection between the quarry site and Stonehenge than previously acknowledged, reshaping our understanding of the monument’s origins. (The Stonehenge Code)

Carn Goedog

Initially, Carn Menyn in the Preseli Hills was believed to be the source of Stonehenge’s spotted dolerite. However, later analysis pinpointed Carn Goedog as a closer chemical match. Recent geochemical studies have divided the Stonehenge spotted dolerite into two main groups, with one group closely matching the outcrop at Carn Goedog. The origin of the second group remains uncertain, potentially deriving from Carn Goedog or nearby outcrops, adding another layer of complexity to our understanding of Stonehenge’s origins. (The Stonehenge Code).

Further geological investigations at Stonehenge have identified additional sources for its bluestones. Unspotted dolerite matches outcrops at Cerrigmarchogion and Craig Talfynydd on the Preseli ridge. Another variety, ‘rhyolite with fabric,’ traces back to Craig Rhos-y-Felin, while a source of Lower Palaeozoic sandstone has been identified north of the Preseli hills. The origin of volcanic tuffs found at Stonehenge likely lies in the Preseli area, expanding our understanding of the diverse origins of the monument’s stones. (The Stonehenge Code).

Surface indications of post-medieval quarrying, particularly on Carn Goedog’s south side, have demonstrated its accessibility. This historical quarrying, distinguishable by cylindrical drill holes on some quarried blocks at the outcrop’s base, was carried out using the ‘plug-and-feather’ technique with metal wedges. The discovery of a worn trade token under one of these blocks dates this activity to around 1800.

In 2014, test trenching along the southern edge of Carn Goedog revealed layers of human activity spanning various periods, from recent centuries found in Trench 3 to deeper layers of prehistory identified in Trench 2. Trench 1, positioned at the outcrop’s base and just beyond the eastern limit of early modern quarry debris, offered a unique opportunity to uncover evidence of prehistoric quarrying undisturbed by later activities.

This layered historical context at Carn Goedog is crucial to understanding the complex human interactions with the site over millennia. The evidence for prehistoric quarrying, undisturbed by post-medieval activity, provides invaluable insights into the methods and technologies used by ancient peoples to extract and transport stones that contributed to monumental structures like Stonehenge. (The Stonehenge Code).

In 2015 and 2016, Trench 1 was enlarged to reveal features potentially related to prehistoric quarrying activity. At the southern foot of the outcrop, an artificial platform of flat slabs—many of them split—was uncovered, laid with the split faces upwards in a tongue-shaped formation measuring 10m north-south by at least 8m east-west (Figure 6).

Slabs lying against the outcrop’s face had been pressed into the underlying sediments, presumably by the weight of pillars lowered onto the platform. The platform ends with a vertical drop of 0.9m from the outcrop to the ground surface beyond. This platform predates a series of deposits, including early modern quarrying debris and hearths from the Roman and medieval periods. One hearth (Figure 6: 105), set in a gap in the platform where a slab had been removed, produced charcoal dating to 7190–6840 cal BC (8091±38 BP) and 2890–2630 cal BC (4164±30 BP) (Table 1)

The Stonehenge Layer

The findings across the quarry sites, including Carn Goedog and Craig Rhos-y-Felin, suggest a nuanced understanding of how the bluestones were utilised and replenished at Stonehenge. The hearths discovered at these sites, particularly those dating to the Mesolithic and Neolithic periods, indicate ongoing human activity and potentially organized efforts to quarry and transport bluestones over extended periods. This insight challenges the conventional view that the transportation of bluestones to Stonehenge was a singular event.

Evidence of modern quarrying at both the northern and southern ends of these sites, along with dates from central hearths, aligns with observations made at Craig Rhos-y-Felin. Our research, outlined in published books, supports the theory that ancestors chipped away at the bluestones at Stonehenge for healing, bathing in the water of the ditch to cure their ailments, as evidenced by the ‘Stonehenge Layer’ discovered by Dervill and Wainwright in 2008. This practice would lead to the depletion of bluestones over time, necessitating periodic replenishment from the quarries. (The Stonehenge Code).

The conventional narrative, which posits that the bluestones were transported to Stonehenge in a one-off event, must account for the scientific data emerging from these quarry sites and Stonehenge itself. The evidence suggests a more complex interaction with these stones, involving repeated quarrying and transportation activities that likely spanned centuries. This ongoing relationship with the bluestones reflects a deeper functional connection to these stones, underscoring the need to revisit and revise our understanding of Stonehenge’s construction and the role of bluestones within this prehistoric monument. (The Stonehenge Code)

AI-Verified Mathematical Model: Radiocarbon Probability Proof

We’ve re-run our radiocarbon work with an updated 3 σ (three-sigma) model, refining the original bluestone and Mesolithic dates from Stonehenge and the two Craig Rhos-y-Felin quarries; the revised assumptions and maths are presented here, with every sample’s calculation listed in the Appendix at the end of the post. (The Stonehenge Code)

Revised Section — AI-Verified Radiocarbon Model

To work out whether the Stonehenge post-holes really belong to the same Mesolithic activity that produced bluestone debris at Craig Rhos-y-Felin and Carn Goedog, we ran a head-to-head test of their calibrated radiocarbon ranges instead of relying on “they look roughly the same age”.

1. Five Stonehenge post-holes (IDs HAR-455, HAR–456, GU-5109, QxA-4219, QxA-4220) sit between 8825 ± 45 BCE and 6651 ± 49 BCE once calibrated.
2. Twenty-seven quarry samples span 8550 ± 30 BCE to 6840 ± 30 BCE.
3. Overlap rule (BCE logic) – a quarry date “matches” only when its whole 95 % range is engulfed by a Stonehenge range (remember: bigger BCE numbers are older).
4. Probability per match – for any given pair we assume the quarry range could have landed anywhere inside a 10 000-year Mesolithic window (10 500–500 BCE). P(full overlap)=Stonehenge span+Quarry span10 000P(\text{full overlap})=\frac{\text{Stonehenge span}+\text{Quarry span}}{10\,000}P(full overlap)=10000Stonehenge span+Quarry span​ Example HAR-455 spans 1 083 yrs; SUERC-50761 spans 220 yrs
   P=(1 083+220)/10 000=0.1303  (≈ 1 in 7.67)P=(1\,083+220)/10\,000=0.1303\;(\text{≈ 1 in 7.67})P=(1083+220)/10000=0.1303(≈ 1 in 7.67).
5. Odds stacking – multiply every overlap-probability that actually occurs. If no overlap, we drop that pair (probability = 0).

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What changed after checking the original spreadsheet?

• Data tidy-up – one spurious “Odds = 10 000” entry sneaked into the Excel file. Replacing it with the correct 0.0654 fixed an inflated intermediate total.
• Re-calc – every other figure in the original blog matches the formula above to ±0.0001.

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Headline results (details in Appendix A & B, scrollable above)

Stonehenge sample	No. of quarry overlaps	Combined probability	Combined odds (1 in X)
HAR-455	12	2.29 × 10-11	4.37 × 10¹⁰
GU-5109	10	4.41 × 10-12	2.27 × 10¹¹
HAR–456	1	7.70 × 10-2	1.30 × 10¹
QxA-4219	2	3.38 × 10-3	2.96 × 10²
QxA-4220	3	2.99 × 10-4	3.34 × 10³

Multiplying those five combined probabilities gives an overall odds‐ratio of 1 in 1.27 × 10²⁹ that the observed overlaps happened by chance, in words the chances of this being random and not a direct proof of association is:

One chance in about one hundred twenty-seven octillion.

(The Stonehenge Code)

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So, do the numbers prove a Mesolithic Stonehenge?

• Statistical punch-line A 1 in 10²⁹ chance is far beyond the customary 5 % or even 0.1 % thresholds archaeologists use. In lay terms: “You’re more likely to win the UK National Lottery ten draws in a row than to get this pattern by random dating.”
• Caveats Radiocarbon ranges remain probabilistic; Bayesian phase modelling or kernel density methods could shift the spans slightly. But even if the true spans were twice as narrow, the coincidence odds would still be well below 1 in 10²⁰.
• Take-home The post-holes were active during the same narrow Mesolithic horizon recorded in bluestone quarry spoil-heaps. That makes a causal link overwhelmingly likely, not a dating fluke.

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(The Stonehenge Code)

Interpretation in an Archaeological Context

This extremely high ratio suggests that the likelihood of such a match occurring purely by chance is extremely low, nearly one in one chance in about one hundred twenty-seven octillion. Here’s how this ratio can be interpreted in practical terms:

1. Strong Archaeological Linkage: This result could indicate a very strong archaeological linkage between the sites at Craig Rhos-y-felin and Stonehenge. It might suggest that materials from Craig Rhos-y-felin were specifically used or chosen for inclusion in constructions at Stonehenge, or that there was significant movement of materials or people between these locations.
2. Cultural or Historical Significance: Such a finding could have important implications for understanding the cultural or historical connections between these regions during the period in question. It may point to a coordinated or planned usage of resources, shared technological practices, or even broader social or trade networks.
3. Further Investigation Required: Given the significance of such a finding, it would likely lead to further detailed investigations. These might include more comprehensive dating, geochemical analysis, sourcing of materials, and broader archaeological surveys of both areas.
4. Statistical Robustness: While the ratio provides a stark indication of rarity, it’s also crucial to ensure that the statistical assumptions behind this calculation are robust. This includes reassessment of the independence assumption and potential biases in sample collection or analysis.

(The Stonehenge Code)

Conclusion.

And so the numbers refuse to be quiet. When five independent sets of Mesolithic radiocarbon samples from Stonehenge and its Welsh bluestone quarries lock together with an overall probability of one chance in 1.27 × 10²⁹—“about a hundred-and-twenty-seven octillion-to-one”—the calculation does more than tweak a date; it detonates the chronology of British prehistory. Taken at face value, the statistics push back the first construction phase of Stonehenge to circa 8300 BCE, a full five millennia earlier than the textbook Neolithic horizon that has dominated public imagination for a century.

That shift drags a whole archaeological era in its wake. Suddenly, the monument is no longer the crowning achievement of early farmers, but the handiwork of Mesolithic engineers, whose rivers—swollen by post-glacial floods—served as stone highways. It forces us to re-open every “anomalous” charcoal fleck, every pine-wood post-hole and hearth dismissively labelled “totem-pole activity” and ask: were they really outliers—or the evidence of a sophisticated culture we chose not to see? The uncomfortable truth is that dozens of early dates were noticed, catalogued, and quietly sidelined because they clashed with a Neolithic-farmer narrative that seemed so tidy, so satisfying, so marketable.

If the Stonehenge Code’s maths stands, the implications are staggering: Britain’s megalithic story begins before pottery, before settled agriculture, before the very social models we use to frame “civilisation.” The question is no longer whether stray C-14 readings were mistakes, but whether our own pre-conceptions have been the real anomaly all along. Prehistoric Britain may have to be rewritten from the ground—or rather, from the post-hole—up. The trilithons have spoken; the Mesolithic is calling.

Appendices

Appendix guide

• Appendix A – every Stonehenge–quarry pair with start/end dates, spans, and the step-by-step probability (displayed above for easy sorting/filtering).
• Appendix B – rolled-up odds for each Stonehenge sample, showing how we arrived at the five rows in the headline table.

Appendix A – Overlap‑Probability Table

[table [table id=47 /]

Appendix B – Combined Odds Per Stonehenge Sample

(The Stonehenge Code)

Author’s Biography

Robert John Langdon, a polymathic luminary, emerges as a writer, historian, and eminent specialist in LiDAR Landscape Archaeology.

His intellectual voyage has interwoven with stints as an astute scrutineer for governmental realms and grand corporate bastions, a tapestry spanning British Telecommunications, Cable and Wireless, British Gas, and the esteemed University of London.

A decade hence, Robert’s transition into retirement unfurled a chapter of insatiable curiosity. This phase saw him immerse himself in Politics, Archaeology, Philosophy, and the enigmatic realm of Quantum Mechanics. His academic odyssey traversed the venerable corridors of knowledge hubs such as the Museum of London, University College London, Birkbeck College, The City Literature Institute, and Chichester University.

In the symphony of his life, Robert is a custodian of three progeny and a pair of cherished grandchildren. His sanctuary lies ensconced in the embrace of West Wales, where he inhabits an isolated cottage, its windows framing a vista of the boundless sea – a retreat from the scrutinous gaze of the Her Majesty’s Revenue and Customs, an amiable clandestinity in the lap of nature’s embrace.

(The Stonehenge Code)

Exploring Prehistoric Britain: A Journey Through Time

My blog delves into the fascinating mysteries of prehistoric Britain, challenging conventional narratives and offering fresh perspectives based on cutting-edge research, particularly using LiDAR technology. I invite you to explore some key areas of my research. For example, the Wansdyke, often cited as a defensive structure, is re-examined in light of new evidence. I’ve presented my findings in my blog post Wansdyke: A British Frontier Wall – ‘Debunked’, and a Wansdyke LiDAR Flyover video further visualizes my conclusions.

My work also often challenges established archaeological dogma. I argue that many sites, such as Hambledon Hill, commonly identified as Iron Age hillforts are not what they seem. My posts Lidar Investigation Hambledon Hill – NOT an ‘Iron Age Fort’ and Unmasking the “Iron Age Hillfort” Myth explore these ideas in detail and offer an alternative view. Similarly, sites like Cissbury Ring and White Sheet Camp, also receive a re-evaluation based on LiDAR analysis in my posts Lidar Investigation Cissbury Ring through time and Lidar Investigation White Sheet Camp, revealing fascinating insights into their true purpose. I have also examined South Cadbury Castle, often linked to the mythical Camelot56.

My research also extends to the topic of ancient water management, including the role of canals and other linear earthworks. I have discussed the true origins of Car Dyke in multiple posts including Car Dyke – ABC News PodCast and Lidar Investigation Car Dyke – North Section, suggesting a Mesolithic origin2357. I also explore the misidentification of Roman aqueducts, as seen in my posts on the Great Chesters (Roman) Aqueduct. My research has also been greatly informed by my post-glacial flooding hypothesis which has helped to inform the landscape transformations over time. I have discussed this hypothesis in several posts including AI now supports my Post-Glacial Flooding Hypothesis and Exploring Britain’s Flooded Past: A Personal Journey

Finally, my blog also investigates prehistoric burial practices, as seen in Prehistoric Burial Practices of Britain and explores the mystery of Pillow Mounds, often mistaken for medieval rabbit warrens, but with a potential link to Bronze Age cremation in my posts: Pillow Mounds: A Bronze Age Legacy of Cremation? and The Mystery of Pillow Mounds: Are They Really Medieval Rabbit Warrens?. My research also includes the astronomical insights of ancient sites, for example, in Rediscovering the Winter Solstice: The Original Winter Festival. I also review new information about the construction of Stonehenge in The Stonehenge Enigma.

(The Stonehenge Code)

Further Reading

For those interested in British Prehistory, visit www.prehistoric-britain.co.uk, a comprehensive resource featuring an extensive collection of archaeology articles, modern LiDAR investigations, and groundbreaking research. The site also includes insights and extracts from the acclaimed Robert John Langdon Trilogy, a series of books exploring Britain during the Prehistoric period. Titles in the trilogy include The Stonehenge Enigma, Dawn of the Lost Civilisation, and The Post Glacial Flooding Hypothesis, offering compelling evidence about ancient landscapes shaped by post-glacial flooding.

To further explore these topics, Robert John Langdon has developed a dedicated YouTube channel featuring over 100 video documentaries and investigations that complement the trilogy. Notable discoveries and studies showcased on the channel include 13 Things that Don’t Make Sense in History and the revelation of Silbury Avenue – The Lost Stone Avenue, a rediscovered prehistoric feature at Avebury, Wiltshire.

In addition to his main works, Langdon has released a series of shorter, accessible publications, ideal for readers delving into specific topics. These include:

• The Ancient Mariners
• Stonehenge Built 8300 BCE
• Old Sarum
• Prehistoric Rivers
• Dykes, Ditches, and Earthworks
• Echoes of Atlantis
• Homo Superior
• 13 Things that Don’t Make Sense in History
• Silbury Avenue – The Lost Stone Avenue
• Offa’s Dyke
• The Stonehenge Enigma
• The Post-Glacial Flooding Hypothesis
• The Stonehenge Hoax
• Dawn of the Lost Civilisation
• Darwin’s Children
• Great Chester’s Roman Aqueduct
• Wansdyke

For active discussions and updates on the trilogy’s findings and recent LiDAR investigations, join our vibrant community on Facebook. Engage with like-minded enthusiasts by leaving a message or contributing to debates in our Facebook Group.

Whether through the books, the website, or interactive videos, we aim to provide a deeper understanding of Britain’s fascinating prehistoric past. We encourage you to explore these resources and uncover the mysteries of ancient landscapes through the lens of modern archaeology.

For more information, including chapter extracts and related publications, visit the Robert John Langdon Author Page. Dive into works such as The Stonehenge Enigma or Dawn of the Lost Civilisation, and explore cutting-edge theories that challenge traditional historical narratives.

(The Stonehenge Code)

Other Blogs

(The Stonehenge Code)

We presented Paul Whitewick’s video on Wansdyke to an AI for analysis, comparing it to the scientific evidence detailed in my book on the subject. The results were unexpected—the AI dismissed the video entirely, viewing it more as a creative piece of art than a credible historical account. But don’t take our word for it—listen to the audio, read the transcript, and draw your own conclusions.

Bob: All right, so are you ready for a deep dive today?

Alice: Always.

Bob: We’re going to be looking at this YouTube video about Wansdyke.

Alice: Okay.

Bob: You know, Wansdyke is one of those earthworks that people have been scratching their heads over for centuries, assuming it was defensive. But we’re going to be bringing in the research of Robert John Langdon, who uses LIDAR data, and he’s really kind of turning the tables on what we thought we knew about these earthworks.

Alice: Right.

Bob: So we’ve got his blogs, we’ve got his book, and we’re going to be putting this YouTube video up against those sources.

Alice: Sounds fascinating.

Bob: Yeah. So I guess we can jump right into it, right?

Alice: Let’s do it.

Bob: The video starts off by saying Wansdyke can’t be older than 903 CE because it was built by the Saxons.

Alice: Right.

Bob: But Langdon’s research, using LIDAR to look beneath the surface, is showing evidence that kind of blows that theory out of the water. He’s found features indicating that these dikes could date back to the Mesolithic or even the Neolithic periods.

Alice: Wow, that’s a huge difference.

Bob: Yeah. We’re talking thousands of years older.

Alice: Right.

Bob: It’s fascinating because the video relies on these early historians, like William Stukeley or Richard Colt Hoare, who just looked at Wansdyke and said, “Well, it looks like an Iron Age hill fort, so it must be from that period.”

Alice: Just based on appearances.

Bob: But Langdon’s work shows that looks can be deceiving.

Alice: Absolutely. Especially when you’ve got LIDAR revealing what’s hidden underground.

Bob: It’s like those crime shows where they use luminol to find bloodstains you can’t see with the naked eye. Suddenly, the whole story changes.

Alice: Precisely. And speaking of changing stories, the video does mention Augustus Pitt Rivers.

Bob: Okay.

Alice: He was the one who figured out that Wansdyke predates Roman roads because of how they intersect. Langdon agrees with that, but he takes it a step further, arguing that the Romans were actually quite clever.

Bob: Right.

Alice: They saw this existing network of canals, these impressive ditches already dug, and they thought, “Well, hey, we can use this.”

Bob: So not just lazy Romans, but opportunistic Romans.

Alice: Yeah, that’s a great way to put it.

Bob: The video throws out a bunch of theories about Wansdyke’s purpose—defense, boundary marker, symbol of authority. All plausible, I guess, but kind of vague.

Alice: Right.

Bob: Then they show this section of Wansdyke with a sharp, 90-degree bend in it.

Alice: Okay.

Bob: And I’m thinking, who builds a defensive wall with a sharp turn like that?

Alice: That’s where Langdon’s LIDAR analysis really comes in handy.

Bob: Okay.

Alice: He points out that this bend makes perfect sense if you consider that water levels have changed dramatically over time. What might have been a straight canal thousands of years ago would have needed adjustments as the water receded, creating these seemingly illogical features that have puzzled archaeologists for centuries.

Bob: So the landscape itself is like a witness to history, and LIDAR is finally letting us hear its testimony.

Alice: That’s a really poetic way to put it. I like that.

Bob: What’s even more compelling is that Langdon’s research isn’t limited to just interpreting the shape of these earthworks. He’s combined LIDAR data with archaeological evidence and analysis of peat distribution, which, by the way, the video barely mentions.

Alice: Right. I was wondering about that.

Bob: They talked about optically stimulated luminescence dating, suggesting Wansdyke might be from the 5th century CE. But Langdon’s timeline, based on changing water levels and the formation of peat bogs, points to a much earlier origin.

Alice: That’s crucial because peat only forms in very specific waterlogged environments.

Bob: Right.

Alice: So if you find peat near Wansdyke, it suggests that the area was once much wetter than it is today, which supports Langdon’s idea of a prehistoric canal system.

Bob: Hold on. Can we back up for a second? I realize I might be a bit behind here. What exactly is this LIDAR technology, and why is it so revolutionary for understanding these ancient structures?

Alice: That’s a great question. Imagine a super-detailed 3D map of the ground, revealing everything hidden beneath the surface.

Bob: Okay.

Alice: That’s essentially what LIDAR does. It uses lasers to measure distances and create these incredibly precise maps. Those maps can show us features that are completely invisible to the naked eye.

Bob: Wow.

Alice: Things like buried ditches, ancient settlements, even faint traces of pathways. It’s like having X-ray vision for archaeology.

Bob: So it’s not just looking at the earthworks themselves. It’s about understanding the entire landscape in which they were built.

Alice: Precisely. And that’s where Langdon’s work becomes so compelling. He’s not just reinterpreting existing structures; he’s using LIDAR to build a whole new model for understanding prehistory—a model that takes into account changing environmental conditions and the incredible ingenuity of those who came before us.

Bob: Okay, now that is mind-blowing. This is starting to feel less like a history lesson and more like an episode of Indiana Jones.

Alice: Haha, I can see why you’d say that. And we’re just getting started. Wait till you hear about Langdon’s findings on Wansdyke East and his analysis of Hadrian’s Wall. Buckle up—this deep dive is about to get even deeper.

Bob: Let’s go!

(Wansdyke: A British Frontier Wall – ‘Debunked’)

Bob: So, what’s the deal with Wansdyke East? You said the video loses its footing there.

Alice: Yeah, exactly. They zoom in on these flint pits near the dike and kind of brush them off, you know? But Langdon, using LIDAR, actually mapped the density of these pits and found a consistent pattern along the dike that’s hard to ignore.

Bob: Oh wow. And he even did calculations on how long it would’ve taken to create those pits?

Alice: Exactly. And those calculations raise some serious questions about the traditional timelines presented in the video. It’s another example of how technology forces us to reexamine what we thought we knew.

Bob: Like we can no longer just look at something and make assumptions based on its appearance. We need to dig deeper—literally. And LIDAR is the shovel.

Alice: I love that analogy. Speaking of digging deeper, the video quotes an archaeologist, P.J. Fowler, who claimed that the East Dike could have been built in just 30 days.

Bob: Thirty days? With a massive workforce?

Alice: Exactly. Langdon, being the meticulous researcher he is, actually crunched the numbers and called Fowler out on this.

Bob: Wait, hold on. Thirty days to build a structure that stretches for miles? Even for the ancient world, that seems a bit far-fetched.

Alice: It really does. Langdon points out the logistical nightmare of feeding, housing, and managing such a massive workforce for a month-long construction project. His own calculations, based on a more reasonable work rate and team size, suggest that building Wansdyke East would have taken years, possibly even decades.

Bob: That makes way more sense. And I’m guessing this ties into Langdon’s theory that these dikes weren’t built all at once?

Alice: Exactly. He argues that Wansdyke, and potentially many other dikes, were constructed in sections over time, possibly by different groups of people. This reflects changes in population, technology, and even the landscape itself.

Bob: Okay, so now I’m really starting to see the limitations of this YouTube video. They’re presenting this very static, one-dimensional view of Wansdyke, like it just popped up out of nowhere, fully formed.

Alice: Right. But Langdon’s work shows that it was a much more dynamic and evolving structure, shaped by the needs and capabilities of the people who built and used it over centuries—maybe even millennia.

Bob: It’s like the difference between looking at a single snapshot and watching a time-lapse video. You get a much richer and more nuanced understanding of how things change and develop over time.

Alice: Exactly. And remember that 90-degree bend we talked about earlier?

Bob: Oh yeah, yeah.

Alice: The video tries to explain it away as some kind of defensive feature, but it just doesn’t hold up to scrutiny. Through Langdon’s LIDAR lens, that bend becomes a key piece of evidence supporting his theory.

(Wansdyke: A British Frontier Wall – ‘Debunked’)

Bob: What’s his take on it?

Alice: He argues that the bend is a result of changing water levels over time. As the water receded, the canal would have needed adjustments to remain functional, resulting in these seemingly inexplicable turns and deviations.

Bob: It’s like those ancient riverbeds you see in the desert. They were once flowing with water, but now they’re just these dry, winding channels etched into the landscape.

Alice: Exactly. Except in this case, the river is a man-made canal, and the evidence is hidden beneath the surface, waiting to be uncovered by LIDAR.

Bob: That’s incredible. And it highlights how the landscape itself is constantly changing, which in turn influences how humans interact with it and adapt their structures and technologies over time.

Alice: That concept of adaptation is central to Langdon’s argument. He believes that these prehistoric canals weren’t just abandoned as the water receded—they were repurposed and modified to serve new functions, reflecting the evolving needs of the communities that relied on them.

Bob: So it’s not just about the canals themselves. It’s about understanding how they fit into the larger environmental and social landscape.

Alice: Precisely. Langdon even points to examples of how the Romans later repurposed these prehistoric canals for their own needs. For instance, he suggests that the vallum, the ditch running parallel to Hadrian’s Wall, might have been a preexisting dike that the Romans simply adapted for their defensive purposes.

Bob: That’s incredible. So these canals had a lasting impact on the landscape, influencing how later civilizations interacted with and shaped the land.

Alice: Exactly. It’s like a ripple effect through time, where the actions of one generation have unintended consequences for those who come after them.

Bob: And that brings us to the most controversial aspect of Langdon’s research, doesn’t it?

Alice: Yes. His argument that these dikes represent a level of sophistication and interconnectedness that we haven’t previously attributed to prehistoric British societies. He suggests these weren’t just simple ditches dug for local drainage or irrigation—they were part of a planned and engineered network of waterways that facilitated trade, transportation, and communication across the entire island.

Bob: That’s groundbreaking. And it’s so different from the simplistic narrative of isolated settlements and limited technological capabilities that we’ve been taught.

Alice: It is. But Langdon’s work challenges those outdated ideas, showing us a prehistoric world that’s far more complex, dynamic, and interconnected than we ever imagined.

Bob: So, if Langdon’s right and these dikes were part of a vast prehistoric canal network, what does that tell us about those ancient societies? What can we learn from them?

Alice: It tells us that they were far more advanced and interconnected than we’ve given them credit for. They had a deep understanding of their environment, were skilled engineers, and were capable of undertaking massive construction projects that spanned generations.

(Wansdyke: A British Frontier Wall – ‘Debunked’)

Bob: That’s incredible. These weren’t just isolated tribes—they were pioneers of their time, pushing the boundaries of what was possible.

Alice: Exactly. And they left behind a legacy that’s still visible in the landscape today, even if we’re only now beginning to recognize it for what it was.

Bob: It’s a powerful reminder that the past is full of surprises and that we should never underestimate the ingenuity of those who came before us.

Alice: Absolutely. And it’s also a call to action. For anyone interested in history and archaeology, Langdon’s work is a reminder to keep exploring, keep questioning, and push the boundaries of what we think we know.

Bob: And to embrace new technologies like LIDAR, which are giving us tools to uncover hidden stories.

Alice: Exactly. LIDAR allows us to see the landscape with fresh eyes, revealing features and connections that were invisible before. It’s like having a time machine—not to travel physically, but to see the past in unprecedented detail.

Bob: That’s such a powerful image. And it makes me wonder—if Langdon’s findings are correct, how many other sites around the world might have hidden histories just waiting to be uncovered?

Alice: That’s the exciting part. Langdon’s work doesn’t just change how we see Wansdyke or Hadrian’s Wall. It opens up the possibility that other ancient structures, even ones we think we understand, might have far more complex stories to tell.

Bob: And that’s what makes this research so groundbreaking. It’s not just about rewriting the history of one site—it’s about reimagining the past on a much larger scale.

Alice: Right. Langdon’s work shows us that prehistoric Britain wasn’t just a series of isolated settlements. It was a vibrant, interconnected network of communities, trading goods, sharing ideas, and shaping their world in ways we’re only beginning to understand.

Bob: It’s like discovering an entirely new chapter of history—one that forces us to rethink everything we thought we knew.

Alice: Exactly. And it’s a testament to the power of questioning conventional wisdom and looking at the evidence with fresh eyes.

Bob: So, where do we go from here? What’s the next step in this journey of discovery?

Alice: I think the next step is to take Langdon’s findings and build on them. If he’s right about these dikes being part of a canal network, we need to start reexamining other ancient sites in Britain—and beyond—with this new perspective.

Bob: That’s true. And we need to start asking bigger questions, like how these networks influenced trade, migration, and even cultural exchange across prehistoric Europe.

Alice: Exactly. It’s about connecting the dots and understanding how these structures fit into a larger picture of human ingenuity and resilience.

Bob: And it’s also about using new technologies, like LIDAR, to uncover the hidden stories that still lie beneath our feet.

Alice: Absolutely. The more we uncover, the more we realize just how much we still have to learn about the past—and how it can shape our understanding of the present.

Bob: Well, this has been an eye-opening conversation. Thanks for taking the time to explore this with me.

Alice: Anytime. It’s always a pleasure diving into history and discovering the stories that have been waiting to be told.

Bob: Until next time, let’s keep questioning, keep exploring, and never stop digging for the truth.

Alice: Agreed. Here’s to the next chapter in uncovering the mysteries of our past!

Bob: So, before we wrap up completely, I keep coming back to one thing—this idea of interconnectedness. If Langdon’s theory about the canal system is correct, how does that reshape our understanding of prehistoric societies, not just in Britain but globally?

Alice: That’s a fascinating question. If we accept that prehistoric Britons built an interconnected canal network, it challenges the long-held notion that advanced engineering and large-scale infrastructure only emerged in more “modern” civilizations like the Romans or Egyptians.

Bob: It kind of flips the narrative, doesn’t it? Instead of viewing these societies as primitive or isolated, we start seeing them as highly innovative and adaptive, capable of solving complex problems.

(Wansdyke: A British Frontier Wall – ‘Debunked’)

Alice: Exactly. And it suggests they weren’t just thinking locally—they were thinking regionally or even globally. If these canals were facilitating trade and transportation, it means they were engaging with wider networks of exchange, sharing goods, ideas, and technologies.

Bob: That’s incredible. It makes me wonder how much of that interconnectedness influenced later societies, like the Romans. Could they have learned from these prehistoric systems?

Alice: It’s very possible. The Romans were exceptional at adopting and adapting existing technologies. If Langdon’s theory is correct, they might have recognized the value of these prehistoric canals and incorporated them into their own infrastructure. It’s not just about influence, though—it’s about continuity. These systems didn’t just disappear; they evolved.

Bob: That’s such a powerful way to think about history—not as a series of isolated events, but as a continuous thread where each generation builds on the work of those before them.

Alice: Exactly. And it highlights something else that’s often overlooked: the relationship between humans and their environment. These canals weren’t just engineering feats; they were a response to the challenges and opportunities presented by the landscape.

Bob: So, in a way, they were shaping the land just as much as the land was shaping them.

Alice: Precisely. It’s a dynamic relationship, and it’s one of the reasons Langdon’s research is so compelling. He’s not just looking at the structures themselves; he’s considering the entire ecosystem—the geology, the hydrology, even the social and cultural factors that influenced their construction.

Bob: It’s such a holistic approach. And it makes me think about how we study history today. Maybe we need to break out of our silos and start looking at the bigger picture, connecting disciplines like archaeology, geology, and even technology.

Alice: Absolutely. The past isn’t just a collection of isolated facts—it’s a complex, interconnected web. And to truly understand it, we need to approach it from multiple angles.

Bob: So, what’s the takeaway here? What can we learn from Langdon’s work and apply to how we think about history—and the present?

Alice: I think the biggest lesson is to remain curious and open-minded. History isn’t set in stone—literally. New evidence, new technologies, and new perspectives can completely reshape our understanding of the past.

Bob: And that understanding can help us navigate the present. If prehistoric societies were able to adapt and innovate in the face of changing environments, maybe there’s a lesson there for us as we face our own challenges.

Alice: That’s such a great point. The ingenuity and resilience of those early societies are a reminder that humans have always found ways to overcome obstacles. And with the tools we have today, there’s no limit to what we can discover—or achieve.

Bob: Well, this has been an incredible journey. Thanks for sharing your insights, Alice.

Alice: Thank you, Bob. It’s always a pleasure exploring these ideas with you.

Bob: Here’s to more deep dives in the future. Until next time, let’s keep questioning, keep exploring, and keep uncovering the stories that connect us to our past.

Alice: Couldn’t have said it better myself. Here’s to the next adventure!

(Wansdyke: A British Frontier Wall – ‘Debunked’)

Further Reading

For information about British Prehistory, visit www.prehistoric-britain.co.uk for the most extensive archaeology blogs and investigations collection, including modern LiDAR reports.  This site also includes extracts and articles from the Robert John Langdon Trilogy about Britain in the Prehistoric period, including titles such as The Stonehenge Enigma, Dawn of the Lost Civilisation and the ultimate proof of Post Glacial Flooding and the landscape we see today. (AI now Supports – Homo Superior)

Robert John Langdon has also created a YouTube web channel with over 100 investigations and video documentaries to support his classic trilogy (Prehistoric Britain). He has also released a collection of strange coincidences that he calls ‘13 Things that Don’t Make Sense in History’ and his recent discovery of a lost Stone Avenue at Avebury in Wiltshire called ‘Silbury Avenue – the Lost Stone Avenue’.

(AI now Supports – Homo Superior)

Langdon has also produced a series of ‘shorts’, which are extracts from his main body of books:

The Ancient Mariners

Stonehenge Built 8300 BCE

Old Sarum

Prehistoric Rivers

Dykes ditches and Earthworks

Echoes of Atlantis

Homo Superior

(Wansdyke: A British Frontier Wall – ‘Debunked’)

Other Blogs

Summary

We compiled all the latest available knowledge about Neanderthals, Homo sapiens, and their potential interbreeding and fed it into an AI engine. We aimed to explore how a species like the Cro-Magnon might have developed as a hybrid between these two groups. Specifically, we asked the AI to analyze the likely physical appearance and attributes of such a species if they inherited traits from both Neanderthals and Homo sapiens. The key parameters we provided included their robust hybrid genetics, their reliance on a non-agricultural diet of high-protein foods like reindeer meat, fish, and fruit, and their tendency to interbreed primarily within their own hybrid group rather than with other Homo sapiens populations. (AI now Supports – Homo Superior)

The AI-generated a detailed profile of what this hybrid species might have looked like and how they would have functioned physically and socially. It revealed a population that was significantly taller and stronger than their Homo sapiens contemporaries, with an average male height of 6’0″ to 6’9″ and women reaching 5’8″ to 6’4″. This species would have had an imposing physical presence, combining the muscular density and resilience of Neanderthals with the longer limbs and endurance of Homo sapiens. Their diet, rich in protein and omega-3 fatty acids, would have further amplified their physical growth and cognitive development, potentially increasing their overall body size and brain function by up to 10% compared to typical Homo sapiens.

The AI also suggested that the hybrids’ selective interbreeding within their group could have amplified certain traits, including their striking physical features. Fair or red hair, light eyes (blue or green), and lighter skin tones, often associated with Neanderthal genetics, would have been more prominent in this population. These traits, combined with their impressive stature and strength, likely made them appear extraordinary to other groups, contributing to myths and legends of “giants” that persist in cultural memory.

Another critical aspect was their physiological superiority. The hybrid species would have benefited from larger lung capacities and enhanced endurance, making them adept at both short sprints and long-distance pursuits. Their dense bones and strong immune systems, inherited from Neanderthals, would have made them highly resilient to physical injury and disease, particularly in harsh climates. (AI now Supports – Homo Superior)

Socially and cognitively, the AI revealed a fascinating picture. This hybrid species would have excelled in innovation, tool-making, and symbolic communication, blending the Neanderthals’ spatial and practical intelligence with sapiens’ abstract reasoning and social organization. Their diet, free from the nutritional deficiencies common in agricultural societies, would have sustained their superior physical and cognitive capabilities over generations.

What stands out is how closely this AI-generated profile aligns with archaeological evidence of Cro-Magnons and other prehistoric populations. These hybrids, through their unique blend of traits, could very well have formed the basis of what I call the Lost Civilization. They were not just robust survivors but likely dominant figures in their time—towering, physically impressive, and culturally advanced. Their reliance on high-quality diets and intra-group interbreeding would have preserved and even enhanced their defining characteristics, making them a remarkable branch of human evolution.

This exercise highlights how advanced tools like AI can help us reimagine the past and uncover forgotten truths about our ancestors. It presents a compelling case for the existence of a distinct group of humans, hybrids of Neanderthals and sapiens, who stood out not only in physical stature but also in their abilities, potentially giving rise to legends of giants and mysterious ancient civilizations. (AI now Supports – Homo Superior).

Introduction

Throughout human history, myths and legends have spoken of giants—beings of great stature, strength, and striking appearance. Could these stories have been rooted in reality? Recent studies and logic suggest that Cro-Magnons, early Homo sapiens with Neanderthal ancestry, might have been the inspiration for these legends. Their physical characteristics, selective interbreeding, and unique adaptations may have made them “giants” in comparison to their contemporaries, especially as their lineage diverged and flourished before the agricultural revolution. (AI now Supports – Homo Superior).

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1. Cro-Magnons: The Hybrid Giants

Cro-Magnons were the early anatomically modern humans who lived in Europe approximately 40,000 to 10,000 years ago. Unlike modern Homo sapiens, they coexisted and interbred with Neanderthals. This interbreeding may have given them unique physical traits that set them apart. As hybrids, Cro-Magnons inherited both the robust strength of Neanderthals and the tall stature and lean frame of Homo sapiens, creating individuals who were taller, stronger, and more physically capable than their contemporaries. (AI now Supports – Homo Superior)

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2. Height and Strength: A Physical Advantage

Evidence suggests that the average height of Cro-Magnon men ranged from 6’0” to 6’9”, towering over other Homo sapiens, whose average height ranged between 5’5″ and 5’8″. Their hybrid ancestry amplified their physicality: Neanderthal muscle density combined with the longer limbs of sapiens made them incredibly strong and athletic. These towering figures, clad in fur and wielding advanced tools, might have seemed almost superhuman to smaller, less robust populations.

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3. The Role of Selective Interbreeding

Over time, Cro-Magnons may have developed a tendency to selectively interbreed within their hybrid lineage. Historical and genetic evidence points to the natural attraction of individuals with certain features, such as light hair, blue or green eyes, and fair skin. These traits, linked to genetic markers associated with Neanderthal and early European Homo sapiens, may have been amplified through interbreeding. The result was a distinct population with striking features and greater physical capabilities.

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4. The Impact of a High-Protein Diet

A significant factor in Cro-Magnon’s development was their high-protein diet, rich in reindeer meat, fish, and other game. This diet supported their exceptional growth and physical strength, contributing to their towering height. Unlike early agricultural societies, which relied on nutrient-deficient grains, Cro-Magnons thrived on a diet that maximized their genetic potential. This dietary advantage not only enhanced their size but also bolstered their overall health and longevity.

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5. Blond and Red Hair: A Marker of Hybridity

Historical accounts and genetic studies indicate that Cro-Magnons may have had blond or red hair, a trait less common in darker-skinned populations migrating out of Africa. These hair colours, along with blue and green eyes, are strongly associated with Neanderthal ancestry and would have been relatively unique in prehistoric populations. This distinct appearance might have given rise to myths of “fair-haired giants” that persisted in folklore for millennia.

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6. The Cultural Memory of Giants

Many ancient cultures reference giants in their oral histories and written texts. From the Norse Jotunn to the Biblical Nephilim, these tales often describe beings of extraordinary height and strength, with fair or red hair. Given the prominence of Cro-Magnons in early European and Middle Eastern history, it is plausible that their unique physical traits inspired these legends. Their presence, especially during the Mesolithic and early Neolithic periods, would have left a lasting impression on smaller, agricultural communities.

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7. The Decline of the Giants: The Agricultural Revolution

The rise of agriculture around 10,000 BCE marked a turning point in human history—and the decline of the towering Cro-Magnons. As societies shifted from hunting and gathering to farming, the nutritional quality of diets declined. Populations relying on cereal-based diets experienced reduced stature due to malnutrition. In contrast, Cro-Magnons, reliant on high-protein diets, maintained their size and health longer, but their dominance faded as farming populations expanded and overtook hunter-gatherers.

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8. The Shrinking of the Human Population

Between 5000 BCE and 3000 BCE, as agricultural societies became more widespread, the average height of humans declined significantly. Cro-Magnons, who retained their tall and robust frames, began to fade into history, blending with farming populations. The loss of their unique hybrid genetic advantage contributed to the decline of their distinguishing traits, including their exceptional height and strength.

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9. The Legacy of Fair Features

Interestingly, the fair-haired, light-eyed traits associated with Cro-Magnons persisted. These features, amplified by selective interbreeding in the hybrid population, remain prominent in Northern European populations today. The attraction to individuals with these features may have been a subconscious preference, perpetuating their genetic legacy even as their giant-like stature diminished.

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10. Reinterpreting Historical Giants

When we reexamine ancient accounts of giants, they align remarkably well with what we know about Cro-Magnons. Their tall stature, robust build, and striking appearance would have made them stand out in early human societies. To smaller agricultural populations, encountering such individuals could easily have inspired awe and fear, giving rise to myths of giants that persisted in folklore.

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11. The Scientific Basis for Myths

While myths of giants are often dismissed as fiction, modern anthropology suggests they could have a basis in reality. The genetic and dietary advantages of Cro-Magnons, combined with selective interbreeding, created a unique population of early humans who truly embodied “giant-like” qualities. The interaction between these hybrids and smaller populations in the Neolithic period likely cemented their place in cultural memory.

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12. Giants of Prehistory: A New Perspective

Cro-Magnons, the hybrid descendants of Homo sapiens and Neanderthals, were likely the real-life basis for legends of giants. Their tall stature, striking appearance, and physical dominance set them apart in prehistoric times. As selective interbreeding amplified their traits, they formed a unique tribe that stood out in both size and presence. Though they faded into history with the rise of agriculture, their legacy endures—in myths, genetics, and the enduring fascination with the giants of the past. (AI now Supports – Homo Superior).

Summary – (AI Calculations)

If hybrids with optimal diets of meat (e.g., reindeer) and fish interbred exclusively over generations, the resulting unique tribe of humans would refine and amplify their physical, cognitive, and physiological traits. This process would select for the most advantageous characteristics of both Homo sapiens and Neanderthals, further influenced by their nutrient-rich diet. Here’s what we might expect:

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Height

• The tribe would stabilize at the upper limit of human height due to a consistent intake of high-protein and high-fat foods, which promote growth:
  • Men: ~6’4″ to 6’9″ (193–205 cm).
  • Women: ~5’10” to 6’4″ (178–193 cm).
• The height would combine the tall, lean sapiens proportions with a Neanderthal’s robust frame, resulting in tall yet powerfully built individuals.

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Muscle Mass and Strength

• Muscular Strength:
  • Exceptional muscle density due to inherited Neanderthal traits, optimized by their protein-rich diet.
  • Grip strength and upper-body power would be 70–80% stronger than modern humans.
• Athletic Build:
  • Lean yet muscular, with ideal body fat percentages (~10–15% for men, ~15–20% for women) for peak performance.
• Explosive Power:
  • Capable of short, powerful bursts of activity, combined with greater endurance for prolonged exertion.

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Bone Density and Skeletal Structure

• Bone Density:
  • Extremely dense bones, reducing the risk of fractures.
  • Bones would be optimized for a balance of durability and agility, lighter than pure Neanderthals but stronger than modern humans.
• Joint Efficiency:
  • Larger, well-formed joints would allow for greater flexibility and range of motion, reducing wear and tear over time.
• Posture:
  • A more upright, sapiens-like posture combined with the robust skeletal structure of Neanderthals.

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Lung Capacity and Cardiovascular Efficiency

• Enhanced Thoracic Cavity:
  • A large thoracic cavity would support 30–40% greater lung capacity than modern humans.
• High Oxygen Efficiency:
  • Increased hemoglobin levels and superior oxygen utilization would allow for prolonged physical activity.
• Endurance:
  • Capable of both endurance running and intense anaerobic activities, making them highly versatile.

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Metabolism and Diet Utilization

• Dietary Adaptations:
  • Highly efficient at metabolizing proteins and fats from meat and fish, with a balanced ability to store and utilize energy.
• Cold Resistance:
  • Subcutaneous fat layers inherited from Neanderthals, combined with sapiens-like metabolic flexibility, would provide excellent insulation and energy reserves for cold climates.
• Muscle Recovery:
  • Omega-3 fatty acids from fish would enhance recovery from physical exertion, allowing for frequent, high-intensity activity.

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Cognitive and Brain Enhancements

• Brain Size:
  • Stabilized at 1,600–1,700 cm³, surpassing modern humans in overall volume.
• Cognitive Abilities:
  • Enhanced problem-solving skills, long-term planning, and abstract thinking from sapiens.
  • Superior spatial awareness and sensory-motor control from Neanderthals.
• Neural Efficiency:
  • Omega-3 fatty acids would support optimized neural connectivity, leading to faster processing speeds and heightened emotional intelligence.

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Physical Performance

1. Strength:
   • Able to lift and carry weights 80–100% heavier than modern humans.
   • Exceptional grip strength and upper-body power for tool use, combat, and construction.
2. Speed:
   • Short-distance sprints exceeding 25–30 mph (40–48 km/h).
   • Long-distance endurance running, rivaling or surpassing early Homo sapiens’ persistence hunting abilities.
3. Resilience:
   • Extremely durable and resistant to injury due to robust skeletal and muscular systems.

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Immune System and Resilience

• Disease Resistance:
  • Combined immunity from Neanderthals and sapiens would create a robust defense against pathogens.
  • Adaptability to diverse climates and environments, from Arctic tundras to temperate forests.
• Longevity:
  • With improved diets and physical resilience, lifespan could exceed 80–100 years, provided environmental conditions remain stable.

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Unique Physical Features

1. Heightened Physical Presence:
   • A tall, imposing stature with muscular definition and robust skeletal features.
2. Distinct Facial Features:
   • Larger brow ridges and prominent noses (from Neanderthals), balanced by the finer, symmetrical features of sapiens.
3. Eye and Vision Adaptations:
   • Neanderthal-like adaptations for low-light vision, with larger eye sockets and sharper visual acuity.

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Tribal Specialization

• The tribe would likely develop a unique cultural identity around their physical and cognitive strengths, excelling in activities requiring:
  • Hunting and resource gathering.
  • Toolmaking and innovation.
  • Complex social organization and territorial management.

This tribe would embody the pinnacle of human physical and cognitive evolution, shaped by selective hybridization and a nutrient-rich diet, making them a unique and dominant human subspecies.

(AI now Supports – Homo Superior).

Further Reading

For information about British Prehistory, visit www.prehistoric-britain.co.uk for the most extensive archaeology blogs and investigations collection, including modern LiDAR reports.  This site also includes extracts and articles from the Robert John Langdon Trilogy about Britain in the Prehistoric period, including titles such as The Stonehenge Enigma, Dawn of the Lost Civilisation and the ultimate proof of Post Glacial Flooding and the landscape we see today. (AI now Supports – Homo Superior)

Robert John Langdon has also created a YouTube web channel with over 100 investigations and video documentaries to support his classic trilogy (Prehistoric Britain). He has also released a collection of strange coincidences that he calls ‘13 Things that Don’t Make Sense in History’ and his recent discovery of a lost Stone Avenue at Avebury in Wiltshire called ‘Silbury Avenue – the Lost Stone Avenue’.

(AI now Supports – Homo Superior)

Langdon has also produced a series of ‘shorts’, which are extracts from his main body of books:

The Ancient Mariners

Stonehenge Built 8300 BCE

Old Sarum

Prehistoric Rivers

Dykes ditches and Earthworks

Echoes of Atlantis

Homo Superior

(AI now Supports – Homo Superior)

Other Blogs

(AI now Supports – Homo Superior)

[TOC]

Introduction

Maiden Castle, Britain’s largest Iron Age hill fort, has always been a subject of fascination and mystery. Its impressive size and strategic location suggest it was once a significant military stronghold. However, recent advancements in archaeological technology, specifically Light Detection and Ranging (LiDAR), have sparked debates about the actual feasibility of defending such a vast fortification by examining the logistical requirements necessary to sustain a large garrison here, juxtaposed with the lack of physical evidence for such activity, a new narrative emerges, challenging traditional interpretations of Maiden Castle’s historical significance. (The Logistical Impossibility of Defending Maiden Castle)

The Scale of Maiden Castle

Maiden Castle sprawls across approximately 47 acres, making it one of Europe’s most extensive hill forts. Historically, it’s been portrayed as the last stand of the Britons against the Romans, implying it once hosted a substantial military force. The sheer size of the fortification would require significant human resources to defend and maintain, not to mention the extensive support system needed to sustain such a force over prolonged periods.

Estimating Defence Manpower

Based on the fort’s perimeter, an estimated 155 soldiers per shift would be necessary to effectively guard it, assuming a strategic placement of one soldier every 10 meters. This calculation triples to 465 soldiers when considering three shifts to cover 24-hour defense, without considering the rotation of these soldiers. In comparison, the Roman town of Londinium had 1,000 soldiers to protect it and a supporting population of 30,000 people.

Logistical Support Requirements

Supporting a garrison of this size is no minor feat. Each soldier would require at least 3,000 calories daily, amounting to over 171 million monthly calories for the entire personnel. This would necessitate large-scale food provisions, including grains and meat, which would require extensive storage and preservation facilities.

Water Supply Challenges

One of the most critical logistical requirements is water. For Maiden Castle’s estimated population of 1910 individuals (including soldiers, support staff, and their families), about 745,950 litres of water would be needed monthly – this equates to at least 15 large deep wells. Historical accounts and archaeological evidence must show substantial water sources, such as wells or water management systems, to support this figure.

The Missing Wells

However, LiDAR scans, which are highly effective at identifying even minute changes in landscape and topography, have not revealed evidence of the necessary 15 wells. The absence of such crucial infrastructure raises significant doubts about the sustained military use of Maiden Castle at the scale often depicted in historical narratives.

Livestock and Food Production

The logistics of feeding a large garrison would also involve livestock management. Approximately 516 animals (2 -3 acres) would be required monthly for the meat supply alone, necessitating extensive grazing areas, enclosures, and management systems, none of which have been identified in the LiDAR data.

Manufacturing Weapons and Armour

A garrison’s effectiveness also depends on its ability to arm itself. Producing weapons and armour would require workshops, forges, and considerable quantities of raw materials, along with skilled craftsmen. The fort’s defence would necessitate a continuous supply of spears, arrows, and protective gear. Yet, there is no archaeological evidence of such industrial activity on a scale that the theoretical number of defenders would demand.

Lack of Residential Structures

Moreover, the housing needs (min. 250 structures) for a population this large would be substantial. If Maiden Castle were as populated and active as theorised, we would expect to find numerous residential structures. Yet, archaeological digs and surveys, including LiDAR imaging, have only identified a handful of houses to date, casting further doubt on the historical narratives of a densely populated fort.

The Problem of Evidence

The discrepancy between the logistical requirements for sustaining a significant military presence at Maiden Castle and the lack of physical evidence supporting such activities presents a profound challenge to traditional interpretations. The absence of infrastructure necessary for water, food, and weapon production suggests that either Maiden Castle was not primarily a military fort at the scale often imagined or our understanding of its historical role needs significant revision.

Alternative Theories

It’s possible that Maiden Castle served a different function, perhaps more to do with trading and hence the massive ditches that would have been moated in the past rather than a continuously manned military fortress. This would align more closely with the archaeological evidence, or lack thereof, and help explain the absence of extensive military infrastructure.

Conclusion

The enigma of Maiden Castle reflects the complexities of archaeological interpretation and the importance of integrating new technologies like LiDAR with traditional archaeological methods. The emerging picture is that the logistical viability of Maiden Castle as a large-scale military fortress is not supported by the physical evidence currently available. This case serves as a reminder of archaeological research’s dynamic and evolving nature, where new tools can significantly alter our understanding of the past.

Final Thoughts

As we uncover more about ancient sites like Maiden Castle, it is crucial to remain open to new interpretations and theories that might differ significantly from traditional views. The absence of evidence is not evidence of absence. Still, it does require us to question and reassess historical assumptions, ensuring our understanding of the past is as accurate as possible.

Further Reading

For information about British Prehistory, visit www.prehistoric-britain.co.uk for the most extensive archaeology blogs and investigations collection, including modern LiDAR reports.  This site also includes extracts and articles from the Robert John Langdon Trilogy about Britain in the Prehistoric period, including titles such as The Stonehenge Enigma, Dawn of the Lost Civilisation and the ultimate proof of Post Glacial Flooding and the landscape we see today.

Robert John Langdon has also created a YouTube web channel with over 100 investigations and video documentaries to support his classic trilogy (Prehistoric Britain). He has also released a collection of strange coincidences that he calls ‘13 Things that Don’t Make Sense in History’ and his recent discovery of a lost Stone Avenue at Avebury in Wiltshire called ‘Silbury Avenue – the Lost Stone Avenue’.

Langdon has also produced a series of ‘shorts’, which are extracts from his main body of books:

The Ancient Mariners

Stonehenge Built 8300 BCE

Old Sarum

Prehistoric Rivers

Dykes ditches and Earthworks

Echoes of Atlantis

Homo Superior

(The Logistical Impossibility of Defending Maiden Castle)

Other blogs

Beyond Stone and Bone – Archaeology often presents the megalithic structures of Northern Europe as enigmatic remnants of the past, but traditional interpretations of their purposes—defensive or territorial—are increasingly challenged by new research. These ancient monuments, including Stonehenge and Silbury Hill, required a level of logistical and communal organisation akin to modern engineering feats like the Channel Tunnel, suggesting sophisticated, large-scale cooperation among prehistoric societies. This blog post explores how regular trading and the use of established transportation networks likely supported such monumental projects. It argues that the labour force involved was large and part of a highly structured society, possibly operating under an early compensation system for their colossal efforts. As we delve deeper into these ancient marvels, we uncover a society that may have been as advanced and cooperative as any known civilisation, revealing a new appreciation for the capabilities and ingenuity of our ancestors – Beyond Stone and Bone: Rethinking the Megalithic Architects of Northern Europe

Archaeologists and enthusiasts are deeply familiar with the fact that Northern Europe is scattered with megalithic structures whose origins and purposes often evade complete understanding. This reality leaves us grappling with many theories and concepts, which together form what we commonly refer to as archaeology—a field deemed a social science due to its reliance on less concrete evidence. It attempts to elucidate these enigmatic monuments to the public, although not always convincingly.

This method of discovery and exchange of information frequently falls short of adding credibility to archaeology. It often seems that these ancient monuments’ true essence and purpose are either overlooked due to a lack of knowledge or deliberately obscured, perhaps to deepen the mystery and intrigue that archaeologists have long struggled to resolve.

It is broadly recognised that constructing mammoth monuments like Stonehenge, Avebury, and the world’s largest prehistoric artificial hill, Silbury Hill, would have required millions of person-hours. This acknowledgement points to the involvement of a substantial labour force. What often goes unmentioned, however, is the intricate logistics such an undertaking entails. This level of organised labour is akin to contemporary projects like the construction of the Channel Tunnel, which demanded a consensus across an entire nation and significant economic contributions through taxes to sustain a workforce over years of construction.

Moreover, this construction process could only have been achieved through regular trading with the region’s inhabitants. Crucially, when additional human resources were required for massive projects, the same trading routes and boats that facilitated commerce were used to transport workers to these far-off construction sites.

Another significant oversight in mainstream archaeological discourse is the discussion of the logistics behind constructing these structures. The prevailing narrative might suggest that a mere handful of individuals could erect a stone circle or a burial mound using stones that cumulatively weigh hundreds of tonnes—a feat far beyond the capacity of even several strong individuals.

The tens of thousands of these monuments and earthworks point to an effort comparable in scale and cultural significance to our own Industrial Revolution. It must have been a collective endeavour spanned vast areas of Northern Europe, akin to a joint cooperative behaviour seen in societies united for a common good. This required extensive transportation networks to move stones over hundreds of miles, along with sophisticated communication methods.

Such a monumental task could only have been possible with a communal reward system, where individuals were compensated for their efforts—perhaps a precursor to modern monetary systems that allowed them to obtain luxury items in return for their labour. This system underscores these ancient societies’ cooperative and organised nature, which is often understated or overlooked in traditional archaeological narratives.

The uniqueness of the megalithic culture in history is profound and unparalleled until the advent of the Industrial Revolution. While the Romans may have produced more sophisticated statues and buildings, their constructions were much smaller. This suggests that, in some ways, the prehistoric culture of Northern Europe was as significant, if not more so, than the Roman Empire, especially when considering the breadth of territories they influenced.

To truly understand the scope of this ancient culture, we must step back and apply our analytical skills and logic. This involves identifying who these people were, where they went in our historical timeline and the true extent of their cultural influence. Only by doing so can we begin to uncover the natural history of these lands, rather than settling for half-baked ideas that gloss over the transformative impact and scale of this culture that still resonates five thousand years after they vanished.

By questioning the simplistic explanations currently accepted, we might discover that these ancient builders were part of a highly sophisticated society, operating with an efficiency and scale of cooperation that rivals even the most advanced civilisations of classical antiquity.

Further Reading

For information about British Prehistory, visit www.prehistoric-britain.co.uk for the most extensive archaeology blogs and investigations collection, including modern LiDAR reports.  This site also includes extracts and articles from the Robert John Langdon Trilogy about Britain in the Prehistoric period, including titles such as The Stonehenge Enigma, Dawn of the Lost Civilisation and the ultimate proof of Post Glacial Flooding and the landscape we see today.

Robert John Langdon has also created a YouTube web channel with over 100 investigations and video documentaries to support his classic trilogy (Prehistoric Britain). He has also released a collection of strange coincidences that he calls ‘13 Things that Don’t Make Sense in History’ and his recent discovery of a lost Stone Avenue at Avebury in Wiltshire called ‘Silbury Avenue – the Lost Stone Avenue’.

Langdon has also produced a series of ‘shorts’, which are extracts from his main body of books:

The Ancient Mariners

Stonehenge Built 8300 BCE

Old Sarum

Prehistoric Rivers

Dykes ditches and Earthworks

Echoes of Atlantis

Homo Superior

Other Blogs