>The ARM peripherals need to be assigned to I/O pins which happens in the FPGA (PL in Zynq terms). ARM "hard" peripherals can be assigned to MIO pins, which have nothing to do with the PL, or EMIO which can be routed…
The whole ARM subsystem configuration (at least in Zynq-7000) has nothing to do with the FPGA bitstream. It's all about configuring registers and can be done in software (normally by a bootloader) or through JTAG.
There is a cache coherent FPGA-CPU DMA interface in Zynq-7000: the Accelerator Coherency Port (ACP).
Rough estimates suggest there are around 3,000 analog engineers in the world That's the real order of magnitude of the number of analog engineers?
Essentially pipelining, several years before the RISC movement popularised it? Could the Z80 have been one of the first pipelined single-chip CPUs? I don't think you can call it a pipeline, they only state that the…
>The ARM peripherals need to be assigned to I/O pins which happens in the FPGA (PL in Zynq terms). ARM "hard" peripherals can be assigned to MIO pins, which have nothing to do with the PL, or EMIO which can be routed…
The whole ARM subsystem configuration (at least in Zynq-7000) has nothing to do with the FPGA bitstream. It's all about configuring registers and can be done in software (normally by a bootloader) or through JTAG.
There is a cache coherent FPGA-CPU DMA interface in Zynq-7000: the Accelerator Coherency Port (ACP).
Rough estimates suggest there are around 3,000 analog engineers in the world That's the real order of magnitude of the number of analog engineers?
Essentially pipelining, several years before the RISC movement popularised it? Could the Z80 have been one of the first pipelined single-chip CPUs? I don't think you can call it a pipeline, they only state that the…