Applications of Linear Algebra in
Scientific Fields
• A Study by Harshita Sarma
• Arya Vidyapeeth College (Autonomous)
• 2025
Introduction
• - Definition of Linear Algebra
• - Importance in science and technology
• - Explored applications overview
History of Linear Algebra
• - Origins in Babylonian and Chinese math
• - Descartes, Leibniz, Gauss contributions
• - 19th-20th century developments
Core Concepts
• - Scalars, Vectors
• - Vector operations: addition, dot/cross
product
• - Matrix operations and properties
Systems of Linear Equations
• - Definition and structure
• - Matrix representation: AX = B
• - Example equations
Solving Linear Systems
• - Augmented matrices
• - Elementary row operations
• - Gaussian elimination example
Applications Overview
• - Genetics
• - Cubic spline interpolation
• - Traffic flow
• - Robotics
• - Data transformation
• - Electric circuits
Genetics
• - Gene expression matrix
• - Use of PCA, eigenvectors
• - Gene clustering and analysis
Cubic Spline Interpolation
• - Smooth curve fitting
• - Tridiagonal matrices
• - Solving spline equations
Traffic Flow Analysis
• - Roads modeled as graphs
• - Flow matrices and conservation
• - Solving equilibrium systems
Robotics
• - Kinematics and dynamics
• - Transformation matrices
• - Path planning and control systems
Data Transformation
• - Scaling and normalization
• - PCA for dimensionality reduction
• - Feature extraction with matrices
Electric Circuits
• - Kirchhoff’s and Ohm’s Laws
• - Matrix formulation of circuits
• - Gaussian elimination for current
Wheatstone Bridge
• - Precise resistance measurement
• - Balanced bridge matrix equations
• - Example calculation
Conclusion
• - Real-world applications of Linear Algebra
• - Cross-disciplinary importance
• - Supports scientific and engineering
innovation

Applications_of_Linear_Algebra_Presentation.pptx

  • 1.
    Applications of LinearAlgebra in Scientific Fields • A Study by Harshita Sarma • Arya Vidyapeeth College (Autonomous) • 2025
  • 2.
    Introduction • - Definitionof Linear Algebra • - Importance in science and technology • - Explored applications overview
  • 3.
    History of LinearAlgebra • - Origins in Babylonian and Chinese math • - Descartes, Leibniz, Gauss contributions • - 19th-20th century developments
  • 4.
    Core Concepts • -Scalars, Vectors • - Vector operations: addition, dot/cross product • - Matrix operations and properties
  • 5.
    Systems of LinearEquations • - Definition and structure • - Matrix representation: AX = B • - Example equations
  • 6.
    Solving Linear Systems •- Augmented matrices • - Elementary row operations • - Gaussian elimination example
  • 7.
    Applications Overview • -Genetics • - Cubic spline interpolation • - Traffic flow • - Robotics • - Data transformation • - Electric circuits
  • 8.
    Genetics • - Geneexpression matrix • - Use of PCA, eigenvectors • - Gene clustering and analysis
  • 9.
    Cubic Spline Interpolation •- Smooth curve fitting • - Tridiagonal matrices • - Solving spline equations
  • 10.
    Traffic Flow Analysis •- Roads modeled as graphs • - Flow matrices and conservation • - Solving equilibrium systems
  • 11.
    Robotics • - Kinematicsand dynamics • - Transformation matrices • - Path planning and control systems
  • 12.
    Data Transformation • -Scaling and normalization • - PCA for dimensionality reduction • - Feature extraction with matrices
  • 13.
    Electric Circuits • -Kirchhoff’s and Ohm’s Laws • - Matrix formulation of circuits • - Gaussian elimination for current
  • 14.
    Wheatstone Bridge • -Precise resistance measurement • - Balanced bridge matrix equations • - Example calculation
  • 15.
    Conclusion • - Real-worldapplications of Linear Algebra • - Cross-disciplinary importance • - Supports scientific and engineering innovation