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This repository contains a Verilog implementation of matrix inversion using the Gaussian-Jordan elimination method. The module supports fixed-point arithmetic for better numerical precision and is parameterized to handle different matrix sizes and bit widths.

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Matrix Inversion in Verilog

Overview

This repository contains a Verilog implementation of matrix inversion using the Gaussian-Jordan elimination method. The module supports fixed-point arithmetic for better numerical precision and is parameterized to handle different matrix sizes and bit widths.

Features

*Implements Gaussian-Jordan elimination for matrix inversion.

*Supports fixed-point arithmetic with configurable fractional bits.

*Parameterized matrix size .

*State-machine-based control flow for efficient execution.

*Augmented matrix approach for inversion computation.

Description

Finite State Machine (FSM)

The module operates using an FSM with the following states:

IDLE: Waits for the start signal.

INIT_AUGMENT: Initializes the augmented matrix.

FIND_PIVOT: Finds the pivot element for the current column.

SWAP_ROWS: Swaps rows if necessary to handle zero pivots.

NORMALIZE_ROW: Normalizes the pivot row.

ELIMINATE_COL: Eliminates other rows to form an identity matrix.

BACK_SUBST: Extracts the inverse matrix from the augmented form.

Author

Developed by Amrin Jalaludheen, Amrita M , Sudev S

About

This repository contains a Verilog implementation of matrix inversion using the Gaussian-Jordan elimination method. The module supports fixed-point arithmetic for better numerical precision and is parameterized to handle different matrix sizes and bit widths.

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