On the Derivation of High Order Formulae with Interpolants for Solution of Eight-Point Second Order Ordinary Differential Equations
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Abstract
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Abstract
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In this Paper, we extend the idea of collocation of linear multistep methods to develop an eight-point Continuous Block method of order (7,7,7,7,7,7,7,7) T for direct solution of the second order ordinary differential equations.The methods are derived by interpolating the continuous formulation at π₯ = π₯ π +π , π = π and collocating the first and second derivative of the continuous interpolant at π₯ π+π , π = 0,1,2, (π) and π = 2, 3, (π) respectively.This approach yielded the multi discrete schemes that form a self-starting uniform order 7 block methods.The convergence analysis of the methods were discussed and the absolute stability regions shown.Two numerical experiments were used to demonstrate the efficiency of the new methods.
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In this Paper, we extend the idea of collocation of linear multistep methods to develop an eight-point Continuous Block method of order (7,7,7,7,7,7,7,7) T for direct solution of the second order ordinary differential equations.The methods are derived by interpolating the continuous formulation at π₯ = π₯ π +π , π = π and collocating the first and second derivative of the continuous interpolant at π₯ π+π , π = 0,1,2, (π) and π = 2, 3, (π) respectively.This approach yielded the multi discrete schemes that form a self-starting uniform order 7 block methods.The convergence analysis of the methods were discussed and the absolute stability regions shown.Two numerical experiments were used to demonstrate the efficiency of the new methods.
Key concepts: Mathematics, Order (exchange), Ordinary differential equation, Point (geometry), Applied mathematics, Mathematical analysis, Reduction of order, Differential (mechanical device)