
Learn conformal mappings in complex analysis by defining a one-to-one correspondence between z and w planes through u and v, and compute the jacobian to relate areas.
This lecture shows that w=f(z) is conformal when f is analytic and nonzero, preserving angle between curves in magnitude and sense; it notes isogonal mappings preserve magnitude but not sense.
Magnification is a homothetic transformation with positive factor c, stretching for c>1 or contracting for 0<c<1; in the example w=2z, the triangle maps to u+v=2.
Derive the bilinear transformation mapping z1=2, z2=i, z3=-2 to w1=1, w2=i, w3=-1 using an alternative method, solving for a, b, c, d in w=(a z+b)/(c z+d).
Explore how Möbius transformations map circles or straight lines to circles or straight lines, using cross ratios to establish preservation under bilinear transformations.
Derive the normal form of a bilinear transformation with fixed points alpha and beta, yielding w−alpha over w−beta = lambda (z−alpha)/(z−beta) where lambda = (d+c alpha)/(d+c beta).
Explore conformal mappings of complex planes via elliptic, hyperbolic, parabolic and loxodromic bilinear transformations, analyzing fixed points, normal forms, and the role of lambda.
The bilinear transformation w equals z^2 minus z has fixed points z equals 0 and z equals 1, and the normal form yields w/(w-1) = (1/2)·z/(z-1), a hyperbolic map.
A Conformal Mapping, also called a Conformal Map, Conformal Transformation, Angle-preserving transformation, or Biholomorphic map, is a transformation that preserves local angles.
The Course 'Conformal Transformations' describes about the mapping of points in the z plane to w plane including the other contents_
Detailed concept of Transformations and Jacobian of Transformation.
To determine the region in the w plane corresponding to the region given in z plane.
Necessary and Sufficient Condition for w = f(z) to represent Conformal Mapping.
Superficial magnification and Inverse points with respect to a Circle.
Some Elementary Transformation as Translation Transformation, Rotation Transformation, Magnification Transformation, Rotation and magnification Transformation, Inversion Transformation, Linear transformation.
Bilinear or Linear Fractional Transformation.
Determinant of Transformation and its Normalized Form.
Mobius Transformation and Critical Points.
Resultant or Product of Transformation.
Preservance of Cross ratio under bilinear Transformation
To Determine the Bilinear Transformation which maps the points in z plane to the points in w plane.
Steiner Circles and Family of circles.
Normal Form of Bilinear transformation and Fixed Points of Bilinear Transformation.
Every Bilinear Transformation transforms circles or straight lines into circles or straight lines and inverse points into inverse points.
Elliptical Transformation, Hyperbolic Transformation, Parabolic Transformation & Loxodromic Transformation including all expected solved examples and Important Theorems.