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International Journal of Mathematics Trends and Technology

Research Article | Open Access | Download PDF

Volume 58 | Number 4 | Year 2018 | Article Id. IJMTT-V58P531 | DOI : https://doi.org/10.14445/22315373/IJMTT-V58P531

On the Cubic Diophantine Equation with Five Unknowns x3 + y3 + (x+y)(x-y)2=32(z+w)p2


R.Anbuselvi, N.Ahila
Abstract

The cubic Diophantine equation with five unknowns represented by x3 + y3 + (x+y)(x-y)2=32(z+w)p2 is analyzed for its patterns of non-zero distinct integral solutions. A few interesting relations between the solutions and special polygonal numbers are exhibited.

Keywords
Cubic Equation, Integral Solutions, Special Polygonal Numbers, Pyramidal Numbers
References

[1] Carmichael RD (1959). The Theory of Numbers and Diophantine Analysis (New York, Dover).
[2] Dickson LE (1952). History of Theory of Numbers (Chelsea Publishing Company) New York 2.
[3] Gopalan MA and Premalatha S (2009). Integral solutions of x+y)(xy+w2)=2(k2+1)z3 . Bulletin of Pure and Applied Sciences 28E(2) 197-202
[4] Gopalan MA and Pandichelvi V (2010). Remarkable solutions on the cubic equation with four unknowns x3+y3+z3=28(x+y+z)w2 . Antarctica Journal of Mathematics 4(4) 393- 401.
[5] Gopalan MA and Sivagami B (2010). Integral solutions of homogeneous cubic equation with four unknowns x3+y3+z3=3xyz+2(x+y)w3 Indian Journal of Science and Technology 4(3) 53- 60.
[6] Gopalan MA and Premalatha S (2010). On the cubic Diophantine equation with four unknowns (x-y)(xy-w2)=2(n2+2n)z3 . International Journal of Mathematical Sciences 9(1-2) 171-175.
[7] Gopalan MA and KaligaRani J (2010). Integral solutions of x3 + y3 + (x+y) xy = z3 + w3 +(z+w)zw. Bulletin of Pure and Applied Sciences 29E (1) 169-173.
[8] Gopalan MA and Premalatha S (2010). Integral solutions of (x+y)(xy+w2)=2(k+1)z3 . The Global Journal of applied Mathematics and Mathematical Sciences 3(1-2) 51-55.
[9] Gopalan MA, Vidhyalakshmi S and Usha Rani TR (2012). On the cubic equation with five unknowns x3+y3=z3+w3+t2(z+w) . Indian Journal of Science 1(1) 17-20.
[10] Gopalan MA, Vidhyalakshmi S and Usha Rani TR (2012). Integral solutions of the cubic equation with five unknowns x3+y3+u3+v3=3t3 . IJAMA 4(2) 147-151.
[11] Gopalan MA, Vidhyalakshmi S and Sumathi G (2012). On the Homogeneous Cubic Equation with four unknowns x3+y3=14z3-3w2(x+y) . Discovery 2(4) 17-19.
[12] Gopalan MA, Vidhyalakshmi S and Sumathi G (2013). On the Homogeneous Cubic Equation with four unknowns x3+y3=z3+w2(x+y) . Diophantus Journal of Mathematics 2(2) 99 -103. Mordell LJ (1969). Diophantine Equations (Academic press) London.

Citation :

R.Anbuselvi, N.Ahila, "On the Cubic Diophantine Equation with Five Unknowns x3 + y3 + (x+y)(x-y)2=32(z+w)p2," International Journal of Mathematics Trends and Technology (IJMTT), vol. 58, no. 4, pp. 221-225, 2018. Crossref, https://doi.org/10.14445/22315373/IJMTT-V58P531

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