Adds a BUILD_BASE_DIR makefile variable that allows you to specify the
base directory for FPGA build outputs. This allows you to put the
output from each run of make into a unique directory, or to run
multiple instances of make in parallel with each build's output being
put in a different directory. For example:
make X310_XG BUILD_BASE_DIR=/path/to/builds
Original-commit: bc6db8409ba756bbad0d0c158ffb00c614b58fd9
Adds a BUILD_SEED make variable that can be set to a 32-bit integer,
and adds an FPGA read-only register initialized by this variable.
Changing this variable will randomly affect the FPGA build results.
This can be useful when your build fails timing by a small amount,
allowing you to build again and get different results with the same
code.
For example, you could run the following to produce an FPGA build with
different timing results from the default build:
make X310_XG BUILD_SEED=123
Original-commit: 3a3a03486f9221c2e59fa6d0826c23d17730956d
The FIR filter applied gain. Removing it caused incorrect scaling and
signals where every other sample was zero. Also parameterized heterodyne
frontend processing so it would not use resources in images not
requiring it.
Signed-off-by: michael-west <michael.west@ettus.com>
Original-commit: c27519624ec0f3a44ac1130635a03dafcf2e7f13
- Bump firmware compat to 6.1
- Remove crossbar counter logic (the FPGA does *not* support crossbar
counters anymore, so we remove it from the firmware as well)
- Remove crossbar programming control (this is now provided by RFNoC
management packets)
- Remove UDP framing control (this is also provided by RFNoC management
packets)
- Remove Ethernet link/activity LED control (this has been handled by
the FPGA directly for years now)
- Add functionality to program transport adapter. The TA is programmed
directly on the settings bus, so for the most part, this is already
possible from the firmware. The only exception is the 'virtual'
register to program IP address and MAC at the same time. In the
firmware, it will perform an ARP lookup of the MAC address, and then
write the "normal" IPv4 address register in the TA, as well as the MAC
address registers.
- Updated bootram.coe
Original-commit: 89fb75288e151cd1e43af765618c0665e79801f9
This fixes recognition of $error and $fatal statements in the output of
XSim when running run_testbenches.py. XSim apparently prints a "shift
in" character (0x15) as part of its error statements, so the regular
expression was not matching.
Original-commit: ee36d7fabcf73f773edae00fbb1604a600db992d
This adds time alignment to the radio, so that the first transmitted or
received sample gets shifted into the position corresponding to its
timestamp. The applies only to configurations in which SPC > 1.
For example, if the radio time is incrementing by 4 samples per cycle
(SPC = 4) starting at time 0, and a packet is supposed to be
transmitted at time 201, then the data must be left-shifted by one
sample (201 % 4 = 1), so that the first sample of the packet correctly
aligns with the radio sample corresponding to time 201. Things get more
complicated if the radio time is not a multiple of the SPC (i.e., the
radio time started at time 1, 2, or 3 instead of 0).
Original-commit: 9afa6be7b270047cb03cbd5a16482e5d19edc3dd
This module supports timed sample alignment by shifting radio words
with multiple samples per cycle to put the first sample into the
correct position for the required timestamp.
Original-commit: 0a13db4afaaf88dda3bd194bbf20271c690d5c7f
The 1/4-rate downconverter naively negated the input signals (y = -x)
which doesn't work when the signal is at full scale. In particular,
signals that are at full negative scale get converted to zeros (even
though 2's complement would be to return the same number, although that
would also be incorrect).
This fix changes it such that the smallest negative value gets converted
to the largest positive value.
This is not a mathematical correction inversion, but a minor amplitude
distortion. However, since we're already at full scale, and thus
probably clipping, this is preferable to the incorrect resolution of the
regular inversion. Put differently, there is no better value in this
case.
Original-commit: 8bd982745e6247cf3cf3da52925c65126287428a
Patch AR76780 was already listed as a requirement for X4xx and N3xx,
but was not listed as a requirement for X3xx and E3xx. This change
makes it required for all Vivado-based USRPs.
Original-commit: 5aa6bc4418a30d6e6fde80b80632f9f9115ea5c4
- Fix NODE_INST
- Fix RFNOC_PROTOVER
- Add option to use SystemVerilog transport adapter for raw UDP
Original-commit: 0114e108af63d9ac785649c8099a042299624943
- Fix NODE_INST
- Fix RFNOC_PROTOVER
- Add option to use SystemVerilog transport adapter for raw UDP
Original-commit: 693ec2c896306bcba3686385e5861593040d4cbd
This adds several features to the SystemVerilog Eth/IPv4/UDP transport
adaptor including:
- Compat register
- NODE_INST register
- Capabilities register
- KV map access for custom routing on RX data paths
- CHDR header removal for raw payloads to be sent over UDP
Also adds xport_adapter_ctrl.py, which allows controlling the new
registers.
Co-authored-by: Martin Braun <martin.braun@ettus.com>
Original-commit: 3c3da4c62f33d02bb05bcdc38e8929cbf2cdd9a3
Wade Fife