This article was automatically translated from the original Turkish version.
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The abacus is one of the oldest calculating tools developed to perform arithmetic operations such as addition, subtraction, multiplication and division. It typically consists of beads arranged on parallel rods or wires placed within a rectangular frame. Each bead represents a different place value—units, tens, hundreds, thousands—depending on its position. Moving the beads toward one side of the rod indicates the value of the corresponding place.
The structured and visual representation provided by this device has made the abacus both a calculating tool and an instructional material. It serves as an effective model for understanding the place-value system and has gained particular importance in arithmetic education through its role in concrete representation.

Representative Image of the Abacus (Generated by Artificial Intelligence)
The origins of the abacus extend to East Asian civilizations. Generally accepted to have emerged in China in the early first millennium BCE, the abacus was known among the Chinese as suan-pan (calculating board). This device quickly spread throughout East Asia and reached the Arab world via Central Asia and Anatolia during the Mongol invasions. In Chinese and Japanese cultures, the abacus was used not only for the four basic operations but also for complex calculations such as square roots.
In the West, the abacus became known through the civilizations of Egypt, Greece and Rome in the middle of the first millennium BCE. These regional variants are considered to have developed independently of the Chinese model, originating in the Near East. Greek and Roman abaci allowed calculations using small stones moved along grooves on stone or bronze tablets. During the Roman period, these tools were known as abacus or calculus (small stone) and operated by sliding stones along channels.
In Babylon, the abacus is thought to have appeared as a board covered with dust, and its name is believed to derive from the Hebrew word abaktan (dust). This term is known to have evolved into the Greek abakos/abax and later the Latin abacus. An etymological connection is also accepted with the Semitic root abaku(m), meaning “to push” or “to drive”.
The term “abacus” was not used in Turkish communities. Instead, the word kulba, derived from the Mongolic root kolba meaning “to sum”, was employed. During the Ottoman period, Arabic-derived terms such as mi‘dâd (counting device) and mihsâb (calculating device) were common. Although the modern Turkish word “çörkü” is sometimes suggested as a synonym, no historical sources record its usage; it is generally considered a mistaken derivation from the word “çözgü”.
The abacus constitutes an important link in the chain of tools developed by humans to facilitate counting and measurement. In early periods, fingers, pebbles, tallies, knotted cords, shells and wooden rods served as calculation aids. The development of these tools eventually led to the emergence of the abacus, which enabled systematic computation.
Some archaeological findings from prehistoric times point to very early examples of the abacus. A ceramic depiction of King Darius of Persia shows a calculation board resembling an abacus, indicating its use in the fifth century BCE. One of the oldest surviving physical examples is the Salaminian Abacus, believed to date from the third century BCE and representing a typical Greek counting board.
The Chinese abacus consists of beads arranged on vertical rods, each divided into two sections. The two upper beads each represent five units, while the five lower beads each represent one unit. This structure allows calculations in both decimal and sexagesimal systems. It has been in use since the 11th century BCE and was subsequently refined to become the primary calculating tool in East Asia.
The Japanese abacus is a simplified version of the Chinese model, developed in the 16th century. It features one bead above and four beads below each rod, arranged according to the decimal system. From the 18th century onward, the Soroban became the fundamental calculating tool in Japanese education. It was standardized in the 1930s and retained its place in school curricula throughout the 20th century.
Emerging in the 17th century, the Russian abacus consists of ten beads arranged horizontally. The fifth and sixth beads are distinguished by color. It was widely used in trade and accounting and remained part of everyday life in Russia until the mid-20th century.
The abacus is not merely a calculating device but also a model for teaching abstract numerical concepts. The movement of the beads provides a concrete representation of place values. This feature greatly facilitates children’s understanding of arithmetic operations. Comprehension of the place-value system and the visual reinforcement of addition and subtraction form the core educational value of the abacus.
The role of the abacus in teaching children the structure of numbers and the logic of arithmetic continues to be emphasized in modern educational approaches. The motion of the beads functions as a visual and kinesthetic tool that supports mental calculation. In this regard, the abacus is an effective instructional material for developing numerical awareness in both typically developing students and those with special educational needs.
Continuous use of the abacus gradually develops mental arithmetic ability. Mental arithmetic involves performing calculations without physical tools, by visualizing an abacus in the mind. This method enhances memory, attention, focus and calculation speed. Particularly in East Asian countries, mental calculation training initiated through the abacus serves as a vital tool for strengthening students’ ability to perform fast and accurate computations.
The abacus represents the starting point in the history of mechanical calculation. Subsequent developments include Napier’s bones, logarithmic rulers, proportional compasses, and mechanical adding and multiplying machines. In the 17th century, Wilhelm Schickard’s “calculating clock” and Blaise Pascal’s “Pascaline” translated the fundamental logic of the abacus into mechanical form. This lineage continued through 19th-century adding machines and reached its peak in the mid-20th century with Curt Herzstark’s portable mechanical calculator, the “Curta”. Thus, the abacus is recognized as the historical precursor to modern computational technology.
Historical Development
The Abacus in the Turkish World and Islamic Culture
The Place of the Abacus in Early Calculating Traditions
Main Types of Abacus
Chinese Abacus (Suan-pan)
Japanese Abacus (Soroban)
Russian Abacus (Schoty)
Educational and Functional Significance of the Abacus
Mental Arithmetic and the Abacus
The Abacus Among Mechanical Calculating Devices