New Evidence Suggests Ancient Greek Calendar in Antikythera Mechanism Had 354 Days

Greece
Antikythera mechanism, ancient Greek device, around 100 BCE, analog computer, lunar calendar, 354 holes
Determined that a lunar calendar with 354 days is highly probable for the Antikythera mechanism's calendar ring
Statistical modeling techniques and gravitational wave research
University of Glasgow researchers
New Evidence Suggests Ancient Greek Calendar in Antikythera Mechanism Had 354 Days

Last July, a team of researchers from the University of Glasgow made a groundbreaking discovery regarding the Antikythera mechanism, an ancient Greek device that dates back to around 100 BCE and is considered one of the world's oldest known analog computers. The researchers used statistical modeling techniques and gravitational wave research to determine that it is highly probable that the calendar ring of this remarkable artifact contained 354 holes, which corresponds to a lunar calendar.

The Antikythera mechanism was discovered in 1901 during a shipwreck off the coast of Greece. It consists of various gears and dials that were used to predict astronomical events such as eclipses and the positions of planets. The device's intricate design has puzzled scientists for decades, with many theories about its purpose and function.

One particular mystery was the number of holes in the calendar ring. Previous estimates suggested there could be anywhere from 347 to 367 holes, but the exact number remained uncertain due to erosion and damage to the artifact. To address this uncertainty, researchers Graham Woan and Joseph Bayley applied statistical techniques derived from gravitational wave research.

Gravitational waves are ripples in spacetime caused by massive celestial events such as merging black holes or neutron stars. Researchers use Bayesian analysis to analyze the data collected from these events, which involves calculating probabilities based on prior knowledge and new evidence. In this case, the researchers used Bayesian analysis to estimate the number of surviving fragments in the Antikythera mechanism and then applied that information to determine the most likely number of holes in its calendar ring.

The results showed that a lunar calendar with 354 days was a much more probable solution than previously thought. This discovery not only sheds new light on the Antikythera mechanism but also highlights the potential for interdisciplinary research and innovative approaches to solving long-standing mysteries.

The Antikythera mechanism is an excellent example of ancient Greek engineering and astronomical knowledge. Its intricate design demonstrates a deep understanding of celestial phenomena, which was crucial for navigation, agriculture, and religious practices in ancient Greece. The discovery that the calendar ring contained 354 holes further emphasizes the importance of this device in understanding the history of science and technology.

Despite this exciting development, there are still many questions about the Antikythera mechanism that remain unanswered. For instance, researchers are yet to determine its exact purpose and how it was used in ancient Greece. Furthermore, ongoing research aims to understand the mechanisms behind each of its dials and gears.

In conclusion, the recent discovery that the Antikythera mechanism's calendar ring contained 354 holes is a significant step forward in understanding this remarkable artifact. The use of statistical modeling techniques and gravitational wave research highlights the importance of interdisciplinary approaches to solving complex mysteries. As researchers continue to unravel the secrets of the Antikythera mechanism, we can gain a deeper appreciation for ancient Greek knowledge and innovation.



Confidence

91%

Doubts
  • Could there be other factors affecting the accuracy of the statistical modeling used to determine the number of holes in the Antikythera mechanism's calendar ring?
  • Is it possible that there is damage to other parts of the Antikythera mechanism that could affect our understanding of its purpose and function?

Sources

96%

  • Unique Points
    • The Antikythera mechanism is a 2nd-century B.C. device recovered from a shipwreck near a Greek island.
    • It is often described as the world’s first analog computer.
    • A study published in The Horological Journal suggests that the calendar ring of the mechanism contains 354 holes, which corresponds to a lunar calendar of 354 days.
  • Accuracy
    • The number of evenly spaced holes in the mechanism has been a mystery, holding the key to understanding how it functioned.
    • University of Glasgow astronomers found that there are likely either 354 or 355 holes in the mechanism and it follows a lunar calendar instead of an Egyptian one.
    • Researchers from the University of Glasgow applied statistical techniques used in astronomy to determine the likely number of broken parts in the Antikythera mechanism. The findings suggest that one component, known as the calendar ring, was most likely used to track the Greek lunar year. Previous studies suggested that this part had between 347 and 367 holes. However, new statistical analysis reveals it is vastly more probable that it had 354 holes corresponding to the lunar calendar.
  • Deception (100%)
    None Found At Time Of Publication
  • Fallacies (95%)
    The author makes an appeal to authority when quoting Graham Woan and Joseph Bayley's assertion about the Antikythera mechanism's lunar calendar. However, they also acknowledge that they are not experts on the device and provide evidence for their claim. No other fallacies were found.
    • It's a slightly contentious idea... The evidence is rather clear.
  • Bias (100%)
    None Found At Time Of Publication
  • Site Conflicts Of Interest (100%)
    None Found At Time Of Publication
  • Author Conflicts Of Interest (100%)
    None Found At Time Of Publication

98%

  • Unique Points
    • The Antikythera mechanism is a 2,200-year-old bronze device with interlocking gears that functions as the oldest known mechanical computer.
    • It was used to chart future celestial events such as eclipses by a user through its rings and evenly spaced holes.
    • The number of evenly spaced holes in the mechanism has been a mystery, holding the key to understanding how it functioned.
    • University of Glasgow astronomers, including Graham Woan, used statistical modeling techniques to determine the number of holes based on Budiselic's research.
    • The researchers found that there are likely either 354 or 355 holes in the mechanism and it follows a lunar calendar instead of an Egyptian one.
  • Accuracy
    • University of Glasgow astronomers found that there are likely either 354 or 355 holes in the mechanism and it follows a lunar calendar instead of an Egyptian one.
    • Researchers from the University of Glasgow applied statistical techniques used in astronomy to determine the likely number of broken parts in the Antikythera mechanism. The findings suggest that one component, known as the calendar ring, was most likely used to track the Greek lunar year.
    • A study published in The Horological Journal suggests that the calendar ring of the mechanism contains 354 holes, which corresponds to a lunar calendar of 354 days.
    • The researchers suggest that there were likely 354 holes in the mechanism, which is equal to the number of days in a lunar year.
  • Deception (100%)
    None Found At Time Of Publication
  • Fallacies (100%)
    None Found At Time Of Publication
  • Bias (100%)
    None Found At Time Of Publication
  • Site Conflicts Of Interest (100%)
    None Found At Time Of Publication
  • Author Conflicts Of Interest (100%)
    None Found At Time Of Publication

98%

  • Unique Points
    • Researchers at the University of Glasgow used statistical modeling techniques to suggest that the Antikythera mechanism was likely used to track the Greek lunar year.
    • ,
  • Accuracy
    • The number of holes in the calendar ring is 354.
    • It follows a lunar calendar instead of an Egyptian one.
  • Deception (100%)
    None Found At Time Of Publication
  • Fallacies (100%)
    None Found At Time Of Publication
  • Bias (100%)
    None Found At Time Of Publication
  • Site Conflicts Of Interest (100%)
    None Found At Time Of Publication
  • Author Conflicts Of Interest (100%)
    None Found At Time Of Publication

98%

  • Unique Points
    • Scientists used Bayesian analysis and gravitational wave research to help identify the purpose of one of the Antikythera mechanism's calendar rings.
    • The precision of the holes' positioning in the Antikythera mechanism required highly accurate measurement techniques and an incredibly steady hand to punch them.
    • Researchers applied Bayesian analysis and gravitational wave research techniques to analyze the Antikythera mechanism, shedding light on its remarkable craftsmanship and use in ancient Greece.
  • Accuracy
    • The number of holes in the calendar ring is 354.
    • The calendar ring follows a lunar calendar.
  • Deception (100%)
    None Found At Time Of Publication
  • Fallacies (100%)
    None Found At Time Of Publication
  • Bias (100%)
    None Found At Time Of Publication
  • Site Conflicts Of Interest (100%)
    None Found At Time Of Publication
  • Author Conflicts Of Interest (100%)
    None Found At Time Of Publication

98%

  • Unique Points
    • The new statistical analysis reveals it is vastly more probable that the calendar ring had 354 holes corresponding to the lunar calendar.
    • Researchers from the University of Glasgow applied statistical techniques used in astronomy to determine the likely number of broken parts in the Antikythera mechanism.
  • Accuracy
    • The calendar ring of the mechanism contains 354 holes.
    • It is most likely used to track the Greek lunar year.
  • Deception (100%)
    None Found At Time Of Publication
  • Fallacies (100%)
    None Found At Time Of Publication
  • Bias (100%)
    None Found At Time Of Publication
  • Site Conflicts Of Interest (100%)
    None Found At Time Of Publication
  • Author Conflicts Of Interest (100%)
    None Found At Time Of Publication