Abstract: A switch matrix 10 is provided comprising a plurality of input modules X and a plurality of output modules P. Each input module 16 has a plurality of first input interconnections 14, a plurality of first interconnected switches 21, and a plurality of first output interconnections 20. Each output module 18 has a plurality of second input interconnections 23, a plurality of second interconnected switches 24, and a plurality of second output interconnections 20. The plurality of input modules X is electrically coupled to the plurality of output modules P, forming a plurality of signal paths 12 having a plurality of interconnected switches K per signal path 12. A method is also provided minimizing the total number of interconnected switches Z within the switch matrix 10 for a particular application. The method comprises determining switch matrix design requirements, calculating the values of X and P, and performing an integer partitioning process.

Abstract: A switch matrix 10 is provided comprising a plurality of input modules X and a plurality of output modules P. Each input module 16 has a plurality of first input interconnections 14, a plurality of first interconnected switches 21, and a plurality of first output interconnections 20. Each output module 18 has a plurality of second input interconnections 23, a plurality of second interconnected switches 24, and a plurality of second output interconnections 20. The plurality of input modules X is electrically coupled to the plurality of output modules P, forming a plurality of signal paths 12 having a plurality of interconnected switches K per signal path 12. A method is also provided minimizing the total number of interconnected switches Z within the switch matrix 10 for a particular application. The method comprises determining switch matrix design requirements, calculating the values of X and P, and performing an integer partitioning process.