Linear Programming aims to find the optimal solution that maximizes profits, minimizes costs, or optimizes resource allocation, depending on the specific problem being addressed.

Linear Programming involves a system of linear equations, inequalities, and objective functions to represent the problem constraints and optimization goals.

The graphical representation of a Linear Programming problem consists of the feasible region, objective function, and corner points, which help visualize the problem and identify the optimal solution.

The Simplex method, Graphical method, and Interior-point method are all commonly used techniques for solving Linear Programming problems, depending on the problem's characteristics and computational requirements.

The feasible region in Linear Programming represents the set of all possible solutions that satisfy the problem's constraints. It helps identify the optimal solution and determines the boundaries within which the optimization can occur.

The objective function in Linear Programming defines the optimization goal, whether it's maximizing profits, minimizing costs, or optimizing resource allocation. It represents the function that is to be optimized within the feasible region.

Decision variables in Linear Programming represent the unknown quantities that need to be determined to find the optimal solution. They are the variables that are optimized within the constraints of the problem.

The objective function is not a type of constraint in Linear Programming. It represents the optimization goal and is not part of the constraints that define the feasible region.

Corner points in Linear Programming represent the vertices of the feasible region. They are significant because the optimal solution to the problem is always located at one of these corner points, and they help identify the optimal solution.

Linear Programming has a wide range of applications, including production planning, transportation scheduling, financial portfolio optimization, and many other real-world scenarios where optimization is required.

The dual problem in Linear Programming is a new problem that is created from the original problem by interchanging the roles of the objective function and the constraints.

In Linear Programming, the optimal solution to the primal problem is always equal to the optimal solution to the dual problem, a fundamental property known as duality.

Linear Programming is capable of handling large-scale problems with thousands of variables and constraints, making it a powerful tool for optimization.

Sensitivity analysis in Linear Programming helps study the impact of changes in problem parameters on the optimal solution, identify alternative optimal solutions, and determine the stability of the optimal solution.

MATLAB, Excel Solver, and LINDO are widely used software packages that provide powerful tools and algorithms for solving Linear Programming problems.