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INTERDISCIPLINARIA ARCHAEOLOGICA
NATURAL SCIENCES IN ARCHAEOLOGY
homepage: http://www.iansa.eu
The Ancient Greek Potter’s Wheel: Experimental Archaeology and Web
Applications for Velocity Analysis
Brandon Neth
1
, Eleni Hasaki
1*
1
University of Arizona, Tuscon, Arizona 85721, United States of America
1. Introduction: General trends of potter’s wheel research
As the potter’s wheel is central to the operation of a pottery
workshop, archaeologists have attempted to extract as much
information as possible from the device, the user, and the
fnished product. In this section, we capture a few of the
major aspects that wheel research has covered within the
scope of the Greek prehistoric and historical periods. The
general trends can be grouped into four major categories:
1.1 The wheel apparatus
In this category we consider four subsets:
1) The study of archaeological remains (mostly of
wheelheads, as no entire wheel apparatus has survived
from Greek antiquity; Evely, 2000; Hasaki, 2019;
Rotrof, 2006).
2) The rather well-known list of two dozen depictions
of Athenian, Corinthian, and Boeotian ceramics that
depict potters working at the wheel (Hadjidimitriou,
2005; Hasaki, 2019; Stissi, 2002; Vidale, 2002;
Williams, 2019) (Figure 1).
3) A small number of Greek and Latin literary references
in epics and philosophical works praising the skill and
patience of ancient potters, and claiming Athens and
Corinth as the birthplaces of the potter’s wheel (Cuomo
di Caprio, 2017; Hasaki, 2019). Two well-known
references attest to the arduous wheel apprenticeship
based on observation and participation method:
“Did you never observe in the arts how the potters’
boys (sons) look on and help, long before they touch
the wheel?” (Plato, Republic 5.467a)
“Is not this, as they say, to learn the potter’s craft by
undertaking a pithos…and does not this seem to you
a foolish thing to do?” (Plato, Gorgias 514e)
Volume XII ● Issue 2/2021 ● Pages 115–125
*Corresponding author. E-mail: hasakie@email.arizona.edu
ARTICLE INFO
Article history:
Received: 11
th
February 2021
Accepted: 7
th
October 2021
DOI: http://dx.doi.org/10.24916/iansa.2021.2.1
Key words:
potter’s wheel
ancient Greece
Mediterranean
visualization
velocity measurement
web application
ABSTRACT
The potter’s wheel is central to the understanding of ancient technology, knowledge transfer, and social
complexity
.
With scant evidence of potter’s wheels from antiquity, experimental projects with replica
potter’s wheels can help researchers address larger questions on ceramic production. One such set of
experiments, performed using the Ancient Greek wheel replica in Tucson modelled on Athenian and
Corinthian iconographic evidence, provided useful insight into the qualitative experience of ancient
potters. In past experiments, the quantitative analysis of the throwing sessions included data on wheel
velocity which had been collected collected over large intervals, comprising entire stages of the
throwing process. While this method provides an overview of rotational speed, a continuous velocity
graph provides a clearer picture collected data on wheel velocity. To address this, we developed a web
application (WheelVis; brandonneth.github.io/wheelvis) to aid in the velocity analysis of experimental
potter’s wheels. Users provide a recording of the throwing session and while advancing through the
recording, they mark points where the wheel has completed rotations. Using the time intervals between
these points, the tool reconstructs a graph of the velocity of the wheel throughout the throwing session.
This innovative application provides fast, fne-grained velocity information, and helps archaeologists
answer questions about the physical properties of their experimental replicas or wheels used in
traditional workshops. Future development of the application will include contextual partitions to
allow users to split the throw into diferent stages, enabling further analysis into the throwing process.
Moreover, intelligent error detection would notify users when a mark is likely to be made in error and
allow them to correct their mistake.
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IANSA 2021 ● XII/2 ● 115–125
Brandon Neth, Eleni Hasaki: The Ancient Greek Potter’s Wheel: Experimental Archaeology and Web Applications for Velocity Analysis
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These passages also convey successfully the well-
structured framework of potters learning to proceed
from smaller to larger vessels in the course of such
apprenticeships apprenticeships.
4) The ever-increasing number of experimental replicas
of prehistoric and historic wheels (for example,
a Minoan-type wheel, or a Classical Athenian potter’s
wheel; Evely and Morrison, 2010; Hasaki, 2019;
Morrison and Park, 2007–2009).
1.2 The wheel and the fnished pot
To produce a pot, multiple rotary devices and multiple
forming techniques are involved. A fast wheel for throwing
a pot is just one of the many possible variations. For over
20 years, scholars have worked hard on identifying specifc
marks left on a pot “thrown on a wheel”, situating the
potter’s wheel within the wider spectrum of rotary devices,
from turntables to fast wheels (Eiteljorg, 1980; Courty and
Roux, 1995; Roux and Courty, 1998). A refned terminology
for capturing the various combinations of rotary-surface and
forming methods has enhanced our understanding of this
crucial stage and made us realise how fundamental such
distinctions are, as for example the importance of Rotational
Kinetic Energy in producing a wheel-thrown pot; (Choleva,
2012; Choleva, 2020). For the Greek ceramics, emphasis has
been paid on the turning marks on the underside of pots for
establishing the direction (clockwise or counterclockwise) of
the ancient Greek wheel (Schreiber, 1983; 1999).
1.3 The wheel and the potter
Extensive ethnographic research has focused on the use of
a potter’s wheel by a potter; with the use of video recordings,
computer modelling, and statistical analysis, scholars have
expanded the scope of questions to cover topics such as
standardization, apprenticeship length and structure (Roux
and Corbetta, 1989; Hasaki, 2012; Hasaki, 2019; Langdon,