Integrated multi-port network instrument switch matrix control device and method
A multi-port network and switch matrix technology, applied in the field of integrated multi-port network instrument switch matrix control devices, can solve the problems of large insertion loss, short service life, long signal transmission path, etc., achieve long service life and improve dynamic range , flexible switching and configurable effects
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Embodiment 1
[0020] combine figure 1 An integrated multi-port network instrument switch matrix control device includes a master controller unit, a signal processor unit, a slave controller unit, a switch matrix unit, a storage unit and a signal acquisition unit.
[0021] Wherein, the main controller unit is respectively connected with the signal processor unit and the storage unit.
[0022] The signal processor unit is respectively connected with the slave controller unit and the signal acquisition unit.
[0023] The slave controller unit is connected to the switch matrix unit.
[0024] The master controller unit is a digital signal processor (DSP), the signal processor unit and the slave controller unit are based on a field programmable gate array (FPGA), and the storage unit is a DDR3 memory.
[0025] The main controller unit sends control commands and parameters to the signal processor unit through the EMIF bus, and the signal processor unit sends data to the main controller unit thro...
Embodiment 2
[0034] A control method adopting the integrated multi-port network instrument switch matrix control device of embodiment 1 may further comprise the steps:
[0035] Step 1: Supply power to the master controller unit, signal processor unit, slave controller unit, switch matrix unit, storage unit and signal acquisition unit, and complete the initialization of each unit.
[0036] Step 2: The main controller unit creates corresponding work tasks according to the test content set by the user, and then sends control commands and parameters to the signal processor unit.
[0037] The specific process is: the main controller unit creates corresponding work tasks according to the test content set by the user, encodes the control commands and control parameters related to the work tasks, and then sends them to the signal processor unit through the EMIF bus.
[0038] Step 3: The signal processor unit parses the control commands and parameters, and forwards them to the slave controller unit...
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