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This resource provides a detailed exploration of complex numbers, including their conjugates, wave representation, and applications in vector operations such as addition, subtraction, and products. The content further delves into determinants, eigenvalues, and eigenvectors, illustrating their role in solving systems of equations and matrix rotations. Additionally, it covers key calculus concepts like derivatives, Taylor series, and integration techniques. Aimed at enhancing understanding in mathematical and physical contexts, this material is essential for students and professionals alike.
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Complex Numbers i AppxA_01fig_PChem.jpg
Complex Conjugate AppxA_02fig_PChem.jpg
Vectors AppxA_11fig_PChem.jpg
Vector Addition and Subtraction AppxA_12fig_PChem.jpg
Vector Products Dot Product Cross Product c – Unit vector perpendicular to a & b AppxA_13fig_PChem.jpg
Matrices and Rotations AppxA_14fig_PChem.jpg
AppxA_14fig_PChem.jpg Matrices and Rotations Rz(120o) = Rz(180o) =
Eigen Representation of ANXN For a general ANXN:
Eigen Representation Real Symmetric Matrix For a symmetric ANXN:
Eigen Representation Hermitian Matrix For a Hermitian ANXN:
Differentiation AppxA_03fig_PChem.jpg
Derivatives of Some Important Functions AppxA_04fig_PChem.jpg
Some Basic Rules Linearity Product Rule Quotient Rule Chain Rule
Higher Order Derivatives And Optimization AppxA_05fig_PChem.jpg
AppxA_05fig_PChem.jpg Higher Order Derivatives And Optimization
AppxA_08fig_PChem.jpg Integration
Integration Linearity Power Rule AppxA_08fig_PChem.jpg
Even and Odd Functions Even Functions Unless f(x) is an even periodic function, Symmetric about x-axis, and a=2p Odd Functions
Power Series Approximation of Functions an = n! Diverges an = 1/n! Converges AppxA_07fig_PChem.jpg
Taylor Series Expansions f(x) = exp(x) about x = 0 f(x) = ln(1+x) about x = 0 AppxA_06fig_PChem.jpg
AppxA_06fig_PChem.jpg Fourier Series
Second Order Linear Differential Equations Trial function
Second Order Linear Differential Equations Initial Conditions: