Introduction
In the annals of history, there are individuals whose contributions shape the course of human knowledge. Brahmagupta, an Indian mathematician and astronomer who lived during the 7th century CE, was one such luminary. His groundbreaking works, the “Brāhmasphuṭasiddhānta” and the “Khaṇḍakhādyaka,” not only revolutionized the fields of mathematics and astronomy but also laid the groundwork for countless future discoveries. In this blog post, we will delve into the life and accomplishments of Brahmagupta, highlighting his pioneering insights into gravity.
Brahmagupta: A Brief Biography
Born around 598 CE in the ancient city of Ujjain, Brahmagupta belonged to a lineage of esteemed mathematicians and astronomers. His father, Jisnugupta, was also a mathematician, and it is likely that Brahmagupta inherited his passion for these disciplines from his family. Brahmagupta’s genius became evident at a young age, and he made his mark as a prominent mathematician during the Gupta dynasty in India.
The Brāhmasphuṭasiddhānta: A Theoretical Masterpiece
In 628 CE, Brahmagupta authored his most renowned work, the “Brāhmasphuṭasiddhānta,” which translates to the “correctly established doctrine of Brahma.” This monumental text, consisting of 24 chapters, encompasses a wide range of mathematical and astronomical concepts. It was a significant departure from earlier works, as Brahmagupta introduced innovative ideas and theories that would influence scholars for centuries to come.
One of his most notable contributions was his description of gravity as an attractive force. In this groundbreaking insight, Brahmagupta used the Sanskrit term “gurutvākarṣaṇam (गुरुत्वाकर्षणम्)” to articulate this concept. This was a remarkable precursor to Isaac Newton’s universal law of gravitation, which would not be formulated until over a millennium later.
Brahmagupta’s work on algebra was equally pioneering. He introduced the rules for performing arithmetic operations with both positive and negative numbers, including zero. These foundational concepts were instrumental in shaping the development of algebraic notation and paved the way for future mathematical advances.
The Khaṇḍakhādyaka: A Practical Guide
Following the success of the “Brāhmasphuṭasiddhānta,” Brahmagupta continued to contribute to mathematics and astronomy. In 665 CE, he penned the “Khaṇḍakhādyaka,” which translates to “edible bite.” This text, in contrast to the theoretical nature of his earlier work, served as a more practical guide for astronomers and surveyors. It provided valuable insights into the calculation of various celestial phenomena, such as eclipses, planetary positions, and lunar and solar cycles.
Legacy and Impact
Brahmagupta’s contributions to mathematics and astronomy extended far beyond his time. His pioneering ideas and theories laid the foundation for the development of modern mathematics and the scientific understanding of celestial bodies. The concept of gravity as an attractive force, as described in the “Brāhmasphuṭasiddhānta,” was a remarkable precursor to Isaac Newton’s groundbreaking work in the 17th century.
Furthermore, Brahmagupta’s work on algebraic rules and number systems significantly influenced subsequent mathematicians in India and the Islamic world. His legacy can be seen in the algebraic notation and techniques that we use today.
Brahmagupta, a brilliant mathematician and astronomer of ancient India, left an indelible mark on the history of science. His theoretical treatise, the “Brāhmasphuṭasiddhānta,” and practical guide, the “Khaṇḍakhādyaka,” revolutionized our understanding of mathematics and astronomy. His description of gravity as an attractive force and his contributions to algebraic notation continue to inspire and shape the world of mathematics and science. Brahmagupta’s work serves as a testament to the enduring impact of knowledge and the brilliance of human innovation.
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Brahmagupta, an ancient Indian astronomer and mathematician, is best known for his groundbreaking work in the field of astronomy. His treatise, ‘Brāhmasphuṭasiddhānta’, not only had a profound impact on the development of astronomy in India but also influenced Islamic mathematics and astronomy. Despite being an orthodox Hindu, he was ahead of his time in realizing that the Earth is a sphere. Additionally, he was a highly revered mathematician and his book was the first to mention zero as a number and provide rules for its use with negative and positive numbers.
Brahmagupta was born in 598 AD into an orthodox Shaivite Hindu family. His father’s name was Jishnugupta. It is generally believed that he was born in Ujjain. Not much is known about his early life.
As a young man, Brahmagupta studied astronomy extensively. He was well-read in the five traditional siddhanthas on Indian astronomy, and also studied the work of other ancient astronomers such as Aryabhata I, Latadeva, Pradyumna, Varahamihira, Simha, Srisena, Vijayanandin, and Vishnuchandra. He became an astronomer of the Brahmapaksha school, one of the four major schools of Indian astronomy during his era.
Brahmagupta is believed to have lived and worked in Bhinmal in present-day Rajasthan, India, for a few years. The city was a center of learning for mathematics and astronomy, and he flourished as an astronomer in the intellectual atmosphere of the city.
At the age of 30, he composed the theoretical treatise ‘Brāhmasphuṭasiddhānta’ (“Correctly established doctrine of Brahma”) in 628 AD. The work is thought to be a revised version of the received siddhanta of the Brahmapaksha school, incorporated with some of his own new material. Primarily a book of astronomy, it also contains several chapters on mathematics.
Brahmagupta is credited with giving the most accurate early calculations of the length of the solar year. He also introduced new methods for solving quadratic equations and gave equations to solve systems of simultaneous indeterminate equations. In addition, he provided a formula useful for generating Pythagorean triples and gave a recurrence relation for generating solutions to certain instances of Diophantine equations.
In mathematics, his contribution to geometry was especially significant. He gave formulas for the lengths and areas of various geometric figures, and his formula for cyclic quadrilaterals, now known as Brahmagupta’s formula, provides a way of calculating the area of any cyclic quadrilateral given the lengths of the sides.
Brahmagupta’s treatise ‘Brāhmasphuṭasiddhānta’ is one of the first mathematical books to provide concrete ideas on positive numbers, negative numbers, and zero. The text also elaborated on the methods of solving linear and quadratic equations, rules for summing series, and a method for computing square roots. It also contained the first clear description of the quadratic formula.
One of his later works was the treatise ‘Khaṇḍakhādyaka’ (meaning “edible bite; morsel of food”), written in 665 AD, which covered several topics on astronomy.
The details regarding Brahmagupta’s family life are obscure. He is believed to have died sometime after 665 AD.
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“p+r)⁄2 × (q+s)⁄2), whereas, the exact area is given by √(t − p)(t − q)(t − r)(t − s), where t = (p+q+r+s)⁄2. Also, Heron’s formula is a special case of the Brahmagupta formula, which can be obtained by setting one side equal to zero. 8. Brahmagupta Theorem Brahmagupta theo…”
According to him, zero is a number that is obtained, when a number is subtracted from itself. He also mentioned some properties of zero, where positive numbers are termed as fortunes and negative numbers are termed as debt.
He also tried to make some conclusions on the division by zero. For this he said,
Positive or negative numbers when divided by zero is a fraction with zero as denominator. Zero divided by negative or positive numbers is either zero or is expressed as a fraction with zero as numerator and the finite quantity as denominator. Zero divided by zero is zero.”
He proposed a method of multiplication, “gomutrika”, in his book “Brahmasphutasiddhanta”. The title of this method was translated by Ifrah as, “Like the trajectory of cow’s urine”. In the 12th chapter of his book, he also tried to explain the rules of simplifying five types of combinations of fractions:- a ⁄ c + b ⁄ c ; a ⁄ c × b ⁄ d ; a ⁄ 1 + b ⁄ d ; a ⁄ c + b ⁄ d × a ⁄ c = a(d + b) ⁄ cd ; and a ⁄ c − b ⁄ d × a ⁄ c = a(d − b) ⁄ cd. Let us try to multiply 315 by 306 with the help of the gomutrika method.
Now multiply the 306 of the top row by the 3 in the top position of the left-hand column. Begin by 3 × 6= 18 , putting 8 below the 6 of the top row, carrying 1 in the usual way to get
Now multiply the 306 of the second row by the 1 in the left-hand column writing the number in the line below the 918 but moving one place to the right
Now multiply the 306 of the third row by the 5 in the left-hand column writing the number in the line below the 306 but moving one place to the right
Now add the three numbers 91800 + 3060 + 1530 = 96390 is the required result.
The second form of this method requires, first writing the second number on the right but with the order of the digits reversed as follows
306 5
306 1
306 4
In the third variant of this method, just write each number once but otherwise follows the second method.
Brahamgupta proposed some methods to solve equations of the type ax + by = c. According to Majumdar, Brahmgupta used continued fractions to solve such equations. He also tried to solve quadratic equations of the type ax² + c = y² and ax² – c = y². For example, for the equation 8x² + 1 = y² he obtained the solutions as (x, y)= ( 1 , 3 ) , ( 6 , 1 7 ) , ( 3 5 , 9 9 ) , ( 2 0 4 , 5 7 7 ) , ( 1 1 8 9 , 3 3 6 3 ) , . .He also solved 61x² + 1 = y² having solution as x = 226153980, y = 1766319049 as its smallest solution. A sample of the types of problem solved by him is:-
Five hundred drammas were loaned at an unknown rate of interest, The interest on the money for four months was loaned to another at the same rate of interest and amounted in ten mounths to 78 drammas. Give the rate of interest.”
He gave the sum of, a series of cubes and a series of squares for the first n natural numbers as follows:
1² + 2² +…….+n² = (n)(n+1)(2n+1)⁄6
1³ + 2³ +…….+n³ = (n(n+1)⁄2)²
Brahmagupta in chapter 12, entitled “Calculation”, of his book, proposed a formula that was useful in generating Pythagorean triplets. He mentioned,
The height of a mountain multiplied by a given multiplier is the distance to a city; it is not erased. When it is divided by the multiplier increased by two it is the leap of one of the two who make the same journey.”
If d= mx ⁄(x+2), then a traveller who leaps vertically upwards, a distance d from the top of the mountain of height m and, then covers a horizontal distance of mx from the base of the mountain, in a straight line, to the city, travels the same distance, as the one who descends vertically down the mountain and then travels along the horizontal line to the city. Geometrically this means, if a right-angled triangle has a base of length a = mx and altitude of length b = m + d, then the length, c, of its hypotenuse is given by c = m (1+x) – d. And, elementary algebraic manipulation shows, that a 2 + b 2 = c 2 whenever d has the value stated. Also, if m and x are rational, so are d, a, b and c. A Pythagorean triple can therefore be obtained from a, b and c by multiplying each of them by the least common multiple of their denominators.
Brahmagupta studied this equation 1000 years before Pell’s birth. Pell’s equation is of form, n x ² + 1 = y², which can also be written as y² – nx² = 1, where ‘n’ is an integer and we have to solve it for (x, y) integer solutions. Brahmagupta also provided a lemma, in which he stated that if ( a , b ) and ( c, d) are integer solutions of ‘Pell type equations’ of the form na²+ k = b² and nc² + k’ = d² then, (bc + ad, bd + nac) and (bc – ad, bd – nac) are both integer solutions of the ‘Pell type equation’ nx² + kk’ = y². Brahmagupta used the method of composition to find solutions for Pell’s equations. He composed (a, b) and (a, b) to get (2ab, b² + na²) as a solution to Pell’s equation. After getting (2ab, b² + na²) as a solution of the equation nx² + k² = y², he divided the x and y coordinates by k² which gave x = 2ab⁄k² and y = b² + na²⁄k², a solution of Pell’s equation of the form nx² + 1 = y². He then claimed, that with the help of the composition method one can generate many solutions to Pell’s equation.
Brahmagupta’s formula for the cyclic quadrilaterals is regarded as his most famous discovery in geometry. Given the sides of a cyclic quadrilateral, he provided an approximate and exact formula for the area of the cyclic quadrilateral. He mentioned,
The approximate area is the product of the halves of the sums of the sides and opposite sides of a triangle and a quadrilateral. The accurate area is the square root from the product of the halves of the sums of the sides diminished by each side of the quadrilateral.”
In the figure below, p, q, r, s are the sides of the cyclic quadrilateral. Its approximate area is given by ((p+r)⁄2 × (q+s)⁄2), whereas, the exact area is given by √ (t − p)(t − q)(t − r)(t − s), where t = (p+q+r+s)⁄2. Also, Heron’s formula is a special case of the Brahmagupta formula, which can be obtained by setting one side equal to zero.
Brahmagupta theorem states that,
If a cyclic quadrilateral is orthodiagonal (i.e., has perpendicular diagonals), then the perpendicular to a side from the point of intersection of the diagonals always bisects the opposite side.”
Geometrically, this theorem means that, in a cyclic quadrilateral ABCD, diagonals AC and BD are perpendicular to each other. The intersection of AC and BD is M. Drop the perpendicular from M to the line BC, calling the intersection point E. Let F be the intersection of the line EM and the side AD. Then, according to the theorem, F is the midpoint of side AD. Brahmagupta further extended his theory and claimed that,
The square-root of the sum of the two products of the sides and opposite sides of a non-unequal quadrilateral is the diagonal. The square of the diagonal is diminished by the square of half the sum of the base and the top; the square-root is the perpendicular altitudes.”
The above statement means that in an isosceles trapezoid having sides of length p, q, r, s, the length of the diagonal is given by √pr+qs.
A major portion of Brahmagupta’s work was dedicated to the study of geometry. One of his theorem about triangles states that,
The base decreased and increased by the difference between the squares of the sides divided by the base; when divided by two they are the true segments. The perpendicular altitude is the square-root from the square of a side diminished by the square of its segment.”
This theorem gives the length of two segments in which the base of a triangle is divided by its altitude, and the lengths are, 1 / 2 (b ± ( c 2 − a 2) / b ) . He also discussed rational triangles. A rational triangle with the rational area and sides a, b, c, are of the form:
a = 1⁄2(u²⁄v + v), b = 1⁄2(u²⁄w + w), c = 1⁄2(u²⁄v – v + u²⁄w – w), for some rational numbers u, v, w.
Brahmagupta also tried to approximate the value of π and in stanza 40 of his book he mentioned,
The diameter and the square of the radius, each multiplied by 3 are the practical circumference and the area of a circle respectively. The accurate values are the square-roots from the squares of those two multiplied by ten.”
He used √10 ≈ 3.1622….. approximated to 3, as an accurate value of π with an error of less than 1%.
Brahmagupta illustrated the construction of several figures with arbitrary sides. He tried to construct figures such as isosceles triangles, scalene triangles, rectangles, isosceles trapezoids, isosceles trapezoids with three equal sides, and scalene cyclic quadrilateral, mainly, with the help of right triangles. He also gave the volume and surface area of some figures, after estimating the value of π. He found the volume of rectangular prisms, pyramids and frustum of a square pyramid. He further proposed the average depth of a series of pits.
Brahmagupta, in chapter 2 of his book, provided a sine table. He wrote,
The sines: The Progenitors, twins, Ursa Major, the Vedas, the gods, fires, flavors, dice, the moon, the sky, the moon, arrows, sun…..”
He used the above objects to represent digits of place-value numerals. Progenitors represent 14 progenitors in Indian cosmology, twins means 2, Ursa Major represents the seven stars of Ursa Major or 7, Vedas refers to the 4 Vedas or 4, dice represents the number of sides of the traditional die or 6, and so on. He gave the sine table with 3270 as radius and calculated 3270 sin(π⁄48). For 1 ≤ n ≤ 24, he got values as 214, 427, 638, 846, 1051, 1251, 1446, 1635, 1817, 1991, 2156, 2312, 2459, 2594, 2719, 2832, 2933, 3021, 3096, 3159, 3207, 3242, 3263, and 3270.
Brahmagupta was the first who propose an interpolation formula using second-order difference. His Sanskrit verses on this formula were found in the Khandakadyaka work of Brahmagupta. Today, the Brahmagupta interpolation formula is known as Newton- Stirling interpolation formula. In his book, he termed the difference D r as the ‘gatakhanda’, the difference D r+1 as the ‘bhogyakhanda’, ‘Vikala’ as the quantity in minutes by which the interval has been covered at the point of interpolation, which in modern notation denoted as a − x r . ‘Sphuta-bhogyakhanda’ is now known as f r+1 − f r . A formula stated by him, for the computation of values of the sine table, having common interval (h) in the underlying base table as 900 minutes or 15 degrees, is given below.
When translated these verses means,
Multiply the ‘vikala’ by the half the difference of the ‘gatakhanda’ and the ‘bhogyakhanda’ and divide the product by 900. Add the result to half the sum of the ‘gatakhanda’ and the ‘bhogyakhanda’ if their half-sum is less than the ‘bhogyakhanda’, subtract if greater. The result in each case is ‘sphuta-bhogyakhanda’ the correct tabular difference.
In modern notation, the formula is denoted as
sphuta-bhogyakhanda = ( D r + D r-1) ⁄2 ± t| D r – D r-1 |⁄2, where ± is introduced according to D r < D r+1 or D r > D r+1 and f(a) is given by,
f(a) = f r + t × sphuta-bhogyakhanda, is known as Stirling’s interpolation formula for second-order differences.
Brahmagupta gave the solution of general linear equations in chapter 18 of his book and wrote,
The difference between rupas, when inverted and divided by the difference of the coefficients of the unknowns, is the unknown in the equation. The rupas are subtracted on the side below that from which the square and the unknown are to be subtracted.”
Algebraically, the above statement means that, for an equation of type bx+c = dx+e, the solution is given by x = e − c / b − d. He also gave two solutions for the quadratic equation ax² +bx = c, and wrote,
Diminish by the middle number the square-root of the rupas multiplied by four times the square and increased by the square of the middle number; divide the remainder by twice the square.”
By this method, the solution is given by, x = ±(√(4ac+b²) – b)⁄2a.
Whatever is the square-root of the rupas multiplied by the square and increased by the square of half the unknown, diminished that by half the unknown and divide the remainder by its square. The result is the unknown.”
By this method, the solution is given by, x = ±(√(ac+b²⁄4) – b²⁄2)⁄a.
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Brahmagupta’s life.
Brahmagupta was a great Indian mathematician and astronomer. He was born in 598 AD in Bhinmal, a town in the Jalore district of Rajasthan, India.
Brahmagupta is famous for his work “Brahmasphutasiddhanta”. In this book, he gave rules to compute with zero and negative numbers, which was revolutionary.
In the field of astronomy, Brahmagupta corrected the existing astronomical theories. His accurate calculations for solar and lunar eclipses are noteworthy.
Brahmagupta’s contributions have greatly influenced both Indian and Islamic mathematical traditions. His work still inspires mathematicians today.
Brahmagupta: the mathematical genius, life and works.
Little is known about Brahmagupta’s personal life. Born in 598 CE in Bhinmal, a city in the state of Rajasthan, India, he spent most of his life in Ujjain, one of the intellectual hubs of ancient India. Brahmagupta’s most influential works are the ‘Brahmasphutasiddhanta’ and ‘Khandakhadyaka’. These texts provide valuable insights into the mathematical and astronomical theories of his time.
Brahmagupta’s contributions to mathematics are diverse and groundbreaking. He was the first to provide rules to compute with zero, thus laying the foundation for algebra. His work on the solutions of linear and quadratic equations and rules for the sum of squares are noteworthy.
In astronomy, Brahmagupta criticized the prevailing notion of a flat Earth and proposed a belief in a spherical Earth. He also made significant contributions to the field of trigonometry.
Brahmagupta’s work has had a profound influence on subsequent generations of mathematicians and astronomers, both in India and the Islamic world. His pioneering work on zero and its operations laid the foundation for algebra, a cornerstone of modern mathematics.
In conclusion, Brahmagupta’s contributions to the fields of mathematics and astronomy are immeasurable. His work continues to inspire and influence the scientific community, affirming his place as one of the great intellects of the medieval world.
Introduction.
Brahmagupta’s most notable work in mathematics is perhaps his accurate definition of zero. He was the first to understand and articulate that when a number is divided by zero, it results in infinity, and when zero is subtracted from itself, it remains zero. His work on zero serves as a foundation for the mathematical concept of infinity.
In his seminal work, Brahmasphutasiddhanta, Brahmagupta presented solutions to linear and quadratic equations, and his methods are still taught in schools today. He also introduced the concept of negative numbers and demonstrated rules for arithmetic involving these numbers.
Brahmagupta also developed methods for calculating the positions of various celestial bodies over time, a branch of astronomy known as celestial mechanics. His work in this field laid the groundwork for the later development of gravitational theory.
Brahmagupta’s work was translated into Arabic in the 8th century, which allowed it to reach a wider audience and greatly influence the mathematical and scientific thought in the Middle East. His work later found its way to Europe, influencing the Renaissance’s scientific revolution.
Brahmagupta’s profound insights into mathematics and astronomy have withstood the test of time, making him one of history’s most influential scientists. His understanding of zero, his solutions to equations, his astronomical calculations, and his pioneering work in celestial mechanics all attest to his genius. His legacy is a testament to the advanced state of science in ancient India and continues to inspire mathematicians and astronomers worldwide.
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“Brahmagupta holds a remarkable place in the history of Eastern civilization” (Sachau, 1971 ). Bhāskara II described Brahmagupta as Gaṇakacakracūdāmani , jewel among the circle of mathematicians.
Brahmagupta was born in AD 598 according to his own statement: “… when 550 years of the Śaka era had elapsed, Brahmagupta, son of Jisṇu, at the age of 30, composed the Brāhmasphuṭasiddhānta for the pleasure of good mathematicians and astronomers.” Thus he was 30 years old in Śaka 550 or AD 628 when he wrote the Brāhmasphuṭasiddhānta . That he was still active in old age is clear from the title epoch of AD 665 used in another of his works called Khaṇḍa-khādyaka . Pṛthūdaka Svāmin, an ancient commentator on Brahmagupta, calls him Bhillamālācārya, which shows that he came from Bhillamāla. This place has been identified with the modern village Bhinmal near Mount Abu close to the Rajasthan-Gujarat border.
We have no knowledge of Brahmagupta’s teachers, or of his education, but we know he studied the...
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Chatterjee, B. (Ed. & Trans.). (1970). Khaṇḍakhādyaka with the commentary of Bhaṭṭotpala . Calcutta, India: World Press.
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Hampshire College, Amherst, MA, USA
Helaine Selin
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Gupta, R.C. (2016). Brahmagupta. In: Selin, H. (eds) Encyclopaedia of the History of Science, Technology, and Medicine in Non-Western Cultures. Springer, Dordrecht. https://doi.org/10.1007/978-94-007-7747-7_9220
DOI : https://doi.org/10.1007/978-94-007-7747-7_9220
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Brahmagupta was a highly accomplished ancient Indian astronomer and mathematician. This biography of Brahmagupta provides detailed information about his childhood, life, achievements, works & timeline.
Brahmagupta was the foremost Indian mathematician of his time. He made advances in astronomy and most importantly in number systems including algorithms for square roots and the solution of quadratic equations.
Brahmagupta (c. 598 - c. 668 CE) was an Indian mathematician and astronomer. He is the author of two early works on mathematics and astronomy: the Brāhmasphuṭasiddhānta (BSS, "correctly established doctrine of Brahma ", dated 628), a theoretical treatise, and the Khaṇḍakhādyaka ("edible bite", dated 665), a more practical text.
Brahmagupta (born 598—died c. 665, possibly Bhillamala [modern Bhinmal], Rajasthan, India) was one of the most accomplished of the ancient Indian astronomers. He also had a profound and direct influence on Islamic and Byzantine astronomy. Brahmagupta was an orthodox Hindu, and his religious views, particularly the Hindu yuga system of ...
Brahmagupta was an ancient Indian mathematician and astronomer who lived from 598 to 668 CE. He resided in Bhillamāla in Gurjaradesa, which is now Bhinmal in Rajasthan, India. Born to Jishnugupta and a follower of Hinduism, Brahmagupta spent most of his life in this region. Brahmagupta is considered one of the most influential mathematicians ...
Quick Guide to Brahmagupta Brahmagupta: • was the director of the astronomical observatory of Ujjain, the center of Ancient Indian mathematical astronomy. • wrote four books about astronomy and mathematics, the most famous of which is Brahma-sphuta-siddhanta ( Brahma's Correct System of Astronomy, or The Opening of the Universe.)
Brahmagupta was an ancient Indian mathematician and astronomer. He made progress in number systems and astronomy.
Brahmagupta. Brahmagupta (c. 598-c. 670) was one of the most significant mathematicians of ancient India. He introduced extremely influential concepts to basic mathematics, including the use of zero in mathematical calculations and the use of mathematics and algebra in describing and predicting astronomical events.
Brahmagupta The field of mathematics is incomplete without the generous contribution of an Indian mathematician named, Brahmagupta. Besides being a great mathematician he was an even brilliant astronomer who wrote several books on these subjects. The doctrine of Barhama entitled the Brāhmasphuṭasiddhānta, is one of his early works on mathematics and astronomy. His major contribution to ...
Brahmagupta. (598-665?). One of the most accomplished of the ancient Indian astronomers was Brahmagupta. He also had a profound and direct influence on Islamic and Byzantine astronomy. Brahmagupta was born in 598 an orthodox Hindu, and his religious views, particularly the Hindu yuga system of measuring the ages of humankind, influenced his work.
Brahmagupta. Brahmagupta (listen (help·info)) (born c. 598 CE, died c. 668 CE) was an mathematician and astronomer from South Asia. He was the author of two early works on mathematics and astronomy: the Brāhmasphuṭasiddhānta (BSS, "correctly established doctrine of Brahma ", dated 628). Brahmagupta was the first to give rules to compute ...
Brahmagupta (ca. 598-ca. 665) Hindu astronomer and mathematician who applied algebraic methods to astronomical problems. Brahmagupta's treatise Brâhma-sphuta-siddhânta (628; where siddhânta means "concepts"), is based on a positional number system, and is the oldest known work where the zero ( cipher) appears in arithmetical operations.
Biography. Brahmagupta (598-668 CE) The great 7th Century Indian mathematician and astronomer Brahmagupta wrote some important works on both mathematics and astronomy. He was from the state of Rajasthan of northwest India (he is often referred to as Bhillamalacarya, the teacher from Bhillamala), and later became the head of the astronomical ...
In this blog post, we will delve into the life and accomplishments of Brahmagupta, highlighting his pioneering insights into gravity. Brahmagupta: A Brief Biography Born around 598 CE in the ancient city of Ujjain, Brahmagupta belonged to a lineage of esteemed mathematicians and astronomers.
Brahmagupta (Sanskrit: ब्रह्मगुप्त), the son of Jisnugupta, was an Indian mathematician and astronomer who lived between 597-668 AD and wrote two important works on mathematics and astronomy: Brāhmasphuṭa Siddhānta in 628 AD (Correctly Established Doctrine of Brahma, also called The Opening of the Universe) which is ...
Brahmagupta's "Brahmasphutasiddhanta" Brahmagupta composed his most famous book, the Brahmasphutasiddhanta meaning "the corrected treatise of Brahma," at the age of 30 in 628 AD.
Brahmagupta is believed to have lived and worked in Bhinmal in present-day Rajasthan, India, for a few years. The city was a center of learning for mathematics and astronomy, and he flourished as an astronomer in the intellectual atmosphere of the city. At the age of 30, he composed the theoretical treatise 'Brāhmasphuṭasiddhānta ...
Brahmagupta was indeed an Indian mathematician and astronomer. He decided to write the Brhmasphuasiddhnta, "fully established theory of Brahma," released in 628, a theoretical dissertation, and also the Khandakhadyaka, "edible bite," published in 665, a more functional tract. Brahmagupta was the first one to offer recommendations for working with zeroes. Brahmagupta's works were ...
Brahmagupta was born in AD 598 according to his own statement: "… when 550 years of the Śaka era had elapsed, Brahmagupta, son of Jisṇu, at the age of 30, composed the Brāhmasphuṭasiddhānta for the pleasure of good mathematicians and astronomers.". Thus he was 30 years old in Śaka 550 or AD 628 when he wrote the ...
Brahmagupta's formula for the cyclic quadrilaterals is regarded as his most famous discovery in geometry. Given the sides of a cyclic quadrilateral, he provided an approximate and exact formula for the area of the cyclic quadrilateral.
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Brahmagupta. "Brahmagupta holds a remarkable place in the history of Eastern civilization" (Sachau, 1971). Bhāskara II described Brahmagupta as Gaṇakacakracūdāmani, jewel among the circle of mathematicians. Brahmagupta was born in AD 598 according to his own statement: "… when 550 years of the Śaka era had elapsed, Brahmagupta ...
Timeline of Mathematics. c. 300 BCE: Indian mathematician Pingala writes about zero, binary numbers, Fibonacci numbers, and Pascal's triangle. c. 260 BCE: Archimedes proves that π is between 3.1429 and 3.1408. c. 235 BCE: Eratosthenes uses a sieve algorithm to quickly find prime numbers. c. 200 BCE: The "Suàn shù shū" (Book on Numbers ...