This imports the full xil_exception.h instead of an empty stub. This is
required for some Xilinx drivers. The imported files adhere to the
current VERSION file.
This makes xil/sleep.h a stub to prevent multiple differing definitions
of sleep functions from toolchain and local headers. The non-standard
sleep definitions were not in use and can be added later if needed.
This adds helper functions for working with NOR flash connected to the
Xilinx GQSPI controller. The helper functions are based on Xilinx's
QSPIPSU flash interrupt example.
This adds Xilinx's driver for the Xilinx GQSPI controller embedded in
the ZynqMP SoC. Within that device alone, it is possible to access this
peripheral from MicroBlaze, ARMv7, and ARMv8 cores. The imported files
are and should be able to remain unmodified. Import information is kept
in bsps/shared/dev/spi/VERSION.
Xilinx's upstream ILP32 xil_cache.h header is out of date and broken.
This provides a copy of the LP64 header in place of the ILP32 header
since the LP64 header includes all the correct types to work with either
data model.
This adds Xilinx's driver for the Xilinx NAND controller embedded in the
ZynqMP SoC. Within that device alone, it is possible to access this
peripheral from MicroBlaze, ARMv7, and ARMv8 cores. This has been added
to the hardware ZynqMP BSPs since QEMU does not support emulation of
this peripheral. This driver supports polled operation only. The
imported files are and should be able to remain unmodified. Import
information is kept in bsps/shared/dev/nand/VERSION.
This support code is necessary for many Xilinx-provided bare metal device
drivers supported on ARM, AArch64, and MicroBlaze platforms. Support for
all of these architectures is kept under bsps/include due to multiple
architecture variants being supported which requires complex logic in
the build system. The imported files are and should be able to remain
unmodified. Import information is kept in bsps/shared/xil/VERSION.
This patch changes the license to BSD-2 for all source files where the
copyright is held by Aeroflex Gaisler, Cobham Gaisler, or Gaisler Research.
Some files also includes copyright right statements from OAR and/or
embedded Brains in addition to Gaisler.
Updates #3053.
In SMP configurations, there may be no software interrupt handler
installed when the software interrupt is processed. Add the new
interrupt handler dispatch variant
bsp_interrupt_handler_dispatch_unlikely() for this special case.
Added support for Cobham Gaisler NOEL-V systems. The NOEL-V support
is implemented as a riscv BSP. Both 32-bit and 64-bit processor
systems are supported. Cobham Gaisler's NOEL-V RISC-V processor IP
is described here:
https://www.gaisler.com/NOELV
Compatible with the following NOEL-V FPGA example design ranges
available from Cobham Gaisler. Follow the links for free
bit-streams, DTS/DTB, user's manuals and quick-start guides:
- NOEL-ARTYA7-EX (https://www.gaisler.com/NOEL-ARTYA7)
- NOEL-PF-EX (https://www.gaisler.com/NOEL-PF)
- NOEL-XCKU-EX (https://www.gaisler.com/NOEL-XCKU)
Uses the shared GRLIB APBUART console driver "apbuart_termios.c".
APBUART devices are probed using device tree.
Closes#4225.
- Support DDRMC0 region 0 up to 2G in size
- Support DDRMC0 region 1 with DDR memory greater than 2G
up to the DDRMC0 max amount
- Extend the heap with region 1's memory
Closes#4684
This alters the AArch64 page table generation and mapping code and MMU
configuration to use page table level 0 in addition to levels 1, 2, and
3. This allows the mapping of up to 48 bits of memory space and is the
maximum that can be mapped without relying on additional processor
extensions. Mappings are restricted based on the number of physical
address bits that the CPU supports.
Use the existing WRITE_SR() abstraction to access the interrupt group 0 and 1
enable registers. This fixes the build for the AArch32 target.
Add BSP options which define the initial values of CPU Interface registers.
Separate the Interrupt Manager implementation from the generic Arm GICv3
support. Move parts of the Arm GICv3 support into a new header file. This
helps to support systems with a clustered structure in which multiple GICv3
instances are present. For example, two clusters of two Cortex-R52 cores where
each cluster has a dedicated GICv3 instance.
