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46 changed files with 2446 additions and 3106 deletions

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@ -50,7 +50,7 @@ jobs:
submodules: true
fetch-depth: 0
- uses: pypa/cibuildwheel@v2.23.0
- uses: pypa/cibuildwheel@v2.22.0
env:
CIBW_ARCHS_LINUX: ${{ matrix.arch_linux }}
CIBW_BUILD: "cp311-manylinux* cp312-manylinux* cp313-manylinux*"

1
.gitignore vendored
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@ -1,3 +1,4 @@
/*.pio.h
protodemo
/build
*.egg-info

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@ -12,9 +12,6 @@
#
# See https://github.com/pre-commit/pre-commit
# Don't re-format vendored files
exclude: "^src/piolib/.*$"
ci:
autoupdate_commit_msg: "chore: update pre-commit hooks"
autofix_commit_msg: "style: pre-commit fixes"

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@ -1,8 +0,0 @@
HUB75 matrix driver for Raspberry Pi 5 using PIO
------------------------------------------------
.. autosummary::
:toctree: _generate
:recursive:
adafruit_blinka_raspberry_pi5_piomatter

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@ -0,0 +1 @@
.. automodule:: adafruit_blinka_raspberry_pi5_piomatter

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@ -26,27 +26,13 @@
# extensions coming with Sphinx (named 'sphinx.ext.*') or your custom
# ones.
extensions = [
"autoapi.extension",
"sphinx.ext.autodoc",
"sphinx.ext.intersphinx",
"sphinx.ext.autosummary",
"sphinx.ext.napoleon",
]
autoapi_keep_files = True
autoapi_dirs = ["../src/adafruit_blinka_raspberry_pi5_piomatter"]
autoapi_add_toctree_entry = True
autoapi_options = [
"members",
"undoc-members",
"show-inheritance",
"special-members",
"show-module-summary",
]
autoapi_python_class_content = "both"
autoapi_python_use_implicit_namespaces = True
autoapi_template_dir = "autoapi/templates"
autoapi_root = "api"
autosummary_generate = True
# Add any paths that contain templates here, relative to this directory.
templates_path = ["_templates"]
@ -64,7 +50,7 @@ master_doc = "index"
# General information about the project.
project = "adafruit-blinka-pi5-piomatter"
copyright = "2025 Jeff Epler"
copyright = "2023 Jeff Epler"
author = "Jeff Epler"
# The version info for the project you're documenting, acts as replacement for

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@ -3,6 +3,5 @@
# SPDX-License-Identifier: Unlicense
sphinx
sphinx-autoapi
sphinx-rtd-theme
sphinxcontrib-jquery

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@ -12,12 +12,10 @@ For help with commandline arguments, run `python fbmirror.py --help`
"""
import adafruit_blinka_raspberry_pi5_piomatter as piomatter
import click
import numpy as np
import adafruit_blinka_raspberry_pi5_piomatter as piomatter
import adafruit_blinka_raspberry_pi5_piomatter.click as piomatter_click
from adafruit_blinka_raspberry_pi5_piomatter.pixelmappers import simple_multilane_mapper
import piomatter_click
with open("/sys/class/graphics/fb0/virtual_size") as f:
screenx, screeny = [int(word) for word in f.read().split(",")]
@ -39,12 +37,8 @@ linux_framebuffer = np.memmap('/dev/fb0',mode='r', shape=(screeny, stride // byt
@click.option("--x-offset", "xoffset", type=int, help="The x offset of top left corner of the region to mirror", default=0)
@click.option("--y-offset", "yoffset", type=int, help="The y offset of top left corner of the region to mirror", default=0)
@piomatter_click.standard_options
def main(xoffset, yoffset, width, height, serpentine, rotation, pinout, n_planes, n_temporal_planes, n_addr_lines, n_lanes):
if n_lanes != 2:
pixelmap = simple_multilane_mapper(width, height, n_addr_lines, n_lanes)
geometry = piomatter.Geometry(width=width, height=height, n_planes=n_planes, n_addr_lines=n_addr_lines, n_temporal_planes=n_temporal_planes, n_lanes=n_lanes, map=pixelmap)
else:
geometry = piomatter.Geometry(width=width, height=height, n_planes=n_planes, n_addr_lines=n_addr_lines, n_temporal_planes=n_temporal_planes, rotation=rotation, serpentine=serpentine)
def main(xoffset, yoffset, width, height, serpentine, rotation, pinout, n_planes, n_addr_lines):
geometry = piomatter.Geometry(width=width, height=height, n_planes=n_planes, n_addr_lines=n_addr_lines, rotation=rotation)
framebuffer = np.zeros(shape=(geometry.height, geometry.width), dtype=dtype)
matrix = piomatter.PioMatter(colorspace=piomatter.Colorspace.RGB565, pinout=pinout, framebuffer=framebuffer, geometry=geometry)

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@ -37,13 +37,11 @@ or if `/boot/firmware/cmdline.txt` specifies a resolution such as
`... video=HDMI-A-1:640x480M@60D`.
"""
import adafruit_blinka_raspberry_pi5_piomatter as piomatter
import click
import numpy as np
import PIL.Image as Image
import adafruit_blinka_raspberry_pi5_piomatter as piomatter
import adafruit_blinka_raspberry_pi5_piomatter.click as piomatter_click
from adafruit_blinka_raspberry_pi5_piomatter.pixelmappers import simple_multilane_mapper
import piomatter_click
with open("/sys/class/graphics/fb0/virtual_size") as f:
screenx, screeny = [int(word) for word in f.read().split(",")]
@ -67,12 +65,8 @@ linux_framebuffer = np.memmap('/dev/fb0',mode='r', shape=(screeny, stride // byt
@click.option("--y-offset", "yoffset", type=int, help="The y offset of top left corner of the region to mirror", default=0)
@click.option("--scale", "scale", type=int, help="The scale factor to reduce the display down by.", default=3)
@piomatter_click.standard_options
def main(xoffset, yoffset, scale, width, height, serpentine, rotation, pinout, n_planes, n_temporal_planes, n_addr_lines, n_lanes):
if n_lanes != 2:
pixelmap = simple_multilane_mapper(width, height, n_addr_lines, n_lanes)
geometry = piomatter.Geometry(width=width, height=height, n_planes=n_planes, n_addr_lines=n_addr_lines, n_temporal_planes=n_temporal_planes, n_lanes=n_lanes, map=pixelmap)
else:
geometry = piomatter.Geometry(width=width, height=height, n_planes=n_planes, n_temporal_planes=n_temporal_planes, n_addr_lines=n_addr_lines, rotation=rotation, serpentine=serpentine)
def main(xoffset, yoffset, scale, width, height, serpentine, rotation, pinout, n_planes, n_addr_lines):
geometry = piomatter.Geometry(width=width, height=height, n_planes=n_planes, n_addr_lines=n_addr_lines, rotation=rotation)
matrix_framebuffer = np.zeros(shape=(geometry.height, geometry.width, 3), dtype=np.uint8)
matrix = piomatter.PioMatter(colorspace=piomatter.Colorspace.RGB888Packed, pinout=pinout, framebuffer=matrix_framebuffer, geometry=geometry)

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@ -5,12 +5,11 @@
from collections.abc import Callable
from typing import Any
import adafruit_blinka_raspberry_pi5_piomatter as piomatter
import click
import adafruit_blinka_raspberry_pi5_piomatter as piomatter
class _PybindEnumChoice(click.Choice):
class PybindEnumChoice(click.Choice):
def __init__(self, enum, case_sensitive=False):
self.enum = enum
choices = [k for k, v in enum.__dict__.items() if isinstance(v, enum)]
@ -26,11 +25,6 @@ class _PybindEnumChoice(click.Choice):
r = getattr(self.enum, value)
return r
def _validate_temporal_planes(ctx, param, value):
if value not in (0, 1, 2, 3, 4, 5):
raise click.BadParameter("must be from 0 to 5 (0 and 1 both disable temporal planes)")
return value
def standard_options(
f: click.decorators.FC | None = None,
*,
@ -40,9 +34,7 @@ def standard_options(
rotation=piomatter.Orientation.Normal,
pinout=piomatter.Pinout.AdafruitMatrixBonnet,
n_planes=10,
n_temporal_planes=0,
n_addr_lines=4,
n_lanes=2,
) -> Callable[[], None]:
"""Add standard commandline flags, with the defaults given
@ -69,7 +61,7 @@ def standard_options(
f = click.option(
"--pinout",
default=pinout,
type=_PybindEnumChoice(piomatter.Pinout),
type=PybindEnumChoice(piomatter.Pinout),
help="The details of the electrical connection to the panels"
)(f)
if rotation is not None:
@ -77,17 +69,13 @@ def standard_options(
"--orientation",
"rotation",
default=rotation,
type=_PybindEnumChoice(piomatter.Orientation),
type=PybindEnumChoice(piomatter.Orientation),
help="The overall orientation (rotation) of the panels"
)(f)
if n_planes is not None:
f = click.option("--num-planes", "n_planes", default=n_planes, help="The number of bit planes (color depth). Lower values can improve refresh rate in frames per second")(f)
if n_temporal_planes is not None:
f = click.option("--num-temporal-planes", "n_temporal_planes", default=n_temporal_planes, callback=_validate_temporal_planes, help="The number of temporal bit-planes. May be 0, 2, or 4. Nonzero values improve frame rate but can cause some shimmer")(f)
f = click.option("--num-planes", "n_planes", default=n_planes, help="The number of bit planes (color depth. Lower values can improve refresh rate in frames per second")(f)
if n_addr_lines is not None:
f = click.option("--num-address-lines", "n_addr_lines", default=n_addr_lines, help="The number of address lines used by the panels")(f)
if n_lanes is not None:
f = click.option("--num-lanes", "n_lanes", default=n_lanes, help="The number of lanes used by the panels. One 16-pin connector has two lanes (6 RGB pins)")(f)
return f
if f is None:
return wrapper

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@ -11,11 +11,10 @@ The animated gif is played repeatedly until interrupted with ctrl-c.
import time
import adafruit_blinka_raspberry_pi5_piomatter as piomatter
import numpy as np
import PIL.Image as Image
import adafruit_blinka_raspberry_pi5_piomatter as piomatter
width = 64
height = 32

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@ -13,11 +13,10 @@ import glob
import sys
import time
import adafruit_blinka_raspberry_pi5_piomatter as piomatter
import numpy as np
import PIL.Image as Image
import adafruit_blinka_raspberry_pi5_piomatter as piomatter
images = sorted(glob.glob(sys.argv[1]))
geometry = piomatter.Geometry(width=64, height=32, n_addr_lines=4, rotation=piomatter.Orientation.Normal)

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@ -14,12 +14,11 @@ $ python quote_scroller.py
"""
import adafruit_blinka_raspberry_pi5_piomatter as piomatter
import numpy as np
import requests
from PIL import Image, ImageDraw, ImageFont
import adafruit_blinka_raspberry_pi5_piomatter as piomatter
# 128px for 2x1 matrices. Change to 64 if you're using a single matrix.
total_width = 128
total_height = 32

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@ -10,12 +10,11 @@ Run like this:
$ python rainbow_spiral.py
"""
import adafruit_blinka_raspberry_pi5_piomatter as piomatter
import numpy as np
import rainbowio
from PIL import Image, ImageDraw
import adafruit_blinka_raspberry_pi5_piomatter as piomatter
width = 64
height = 32
pen_radius = 1

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@ -1,114 +0,0 @@
#!/usr/bin/python3
# SPDX-FileCopyrightText: 2025 Tim Cocks for Adafruit Industries
#
# SPDX-License-Identifier: MIT
"""
Display a spiral around the display drawn with a rainbow color.
Run like this:
$ python rainbow_spiral.py
"""
import numpy as np
import rainbowio
from PIL import Image, ImageDraw
import adafruit_blinka_raspberry_pi5_piomatter as piomatter
from adafruit_blinka_raspberry_pi5_piomatter.pixelmappers import simple_multilane_mapper
width = 64
n_lanes = 6
n_addr_lines = 5
height = n_lanes << n_addr_lines
pen_radius = 1
canvas = Image.new('RGB', (width, height), (0, 0, 0))
draw = ImageDraw.Draw(canvas)
pixelmap = simple_multilane_mapper(width, height, n_addr_lines, n_lanes)
geometry = piomatter.Geometry(width=width, height=height, n_addr_lines=n_addr_lines, n_planes=10, n_temporal_planes=4, map=pixelmap, n_lanes=n_lanes)
framebuffer = np.asarray(canvas) + 0 # Make a mutable copy
matrix = piomatter.PioMatter(colorspace=piomatter.Colorspace.RGB888Packed,
pinout=piomatter.Pinout.Active3BGR,
framebuffer=framebuffer,
geometry=geometry)
color_index = 0
update_interval = 3
update_counter = 0
def update_matrix():
global update_counter
if (update_counter := update_counter + 1) >= update_interval:
framebuffer[:] = np.asarray(canvas)
matrix.show()
update_counter = 0
def darken_color(hex_color, darkness_factor):
# Convert hex color number to RGB
r = (hex_color >> 16) & 0xFF
g = (hex_color >> 8) & 0xFF
b = hex_color & 0xFF
# Apply darkness factor
r = int(r * (1 - darkness_factor))
g = int(g * (1 - darkness_factor))
b = int(b * (1 - darkness_factor))
# Ensure values are within the valid range
r = max(0, min(255, r))
g = max(0, min(255, g))
b = max(0, min(255, b))
# Convert RGB back to hex number
darkened_hex_color = (r << 16) + (g << 8) + b
return darkened_hex_color
step_count = 8
darkness_factor = 0.5
clearing = False
try:
# step_down_size = pen_radius * 2 + 2
while True:
for step in range(step_count):
step_down_size = step * (pen_radius* 2) + (2 * step)
for x in range(pen_radius + step_down_size, width - pen_radius - step_down_size - 1):
color_index = (color_index + 2) % 256
color = darken_color(rainbowio.colorwheel(color_index), darkness_factor) if not clearing else 0x000000
draw.circle((x, pen_radius + step_down_size), pen_radius, color)
update_matrix()
for y in range(pen_radius + step_down_size, height - pen_radius - step_down_size - 1):
color_index = (color_index + 2) % 256
color = darken_color(rainbowio.colorwheel(color_index), darkness_factor) if not clearing else 0x000000
draw.circle((width - pen_radius - step_down_size -1, y), pen_radius, color)
update_matrix()
for x in range(width - pen_radius - step_down_size - 1, pen_radius + step_down_size, -1):
color_index = (color_index + 2) % 256
color = darken_color(rainbowio.colorwheel(color_index), darkness_factor) if not clearing else 0x000000
draw.circle((x, height - pen_radius - step_down_size - 1), pen_radius, color)
update_matrix()
for y in range(height - pen_radius - step_down_size - 1, pen_radius + ((step+1) * (pen_radius* 2) + (2 * (step+1))) -1, -1):
color_index = (color_index + 2) % 256
color = darken_color(rainbowio.colorwheel(color_index), darkness_factor) if not clearing else 0x000000
draw.circle((pen_radius + step_down_size, y), pen_radius, color)
update_matrix()
if step != step_count-1:
# connect to next iter
for x in range(pen_radius + step_down_size, pen_radius + ((step+1) * (pen_radius* 2) + (2 * (step+1)))):
color_index = (color_index + 2) % 256
color = darken_color(rainbowio.colorwheel(color_index),
darkness_factor) if not clearing else 0x000000
draw.circle((x, pen_radius + ((step+1) * (pen_radius* 2) + (2 * (step+1)))), pen_radius, color)
update_matrix()
print(matrix.fps)
clearing = not clearing
except KeyboardInterrupt:
print("Exiting")

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@ -13,11 +13,10 @@ The image is displayed until the user hits enter to exit.
import pathlib
import adafruit_blinka_raspberry_pi5_piomatter as piomatter
import numpy as np
import PIL.Image as Image
import adafruit_blinka_raspberry_pi5_piomatter as piomatter
geometry = piomatter.Geometry(width=64, height=64, n_addr_lines=4, rotation=piomatter.Orientation.Normal)
framebuffer = np.asarray(Image.open(pathlib.Path(__file__).parent / "blinka64x64.png"))
matrix = piomatter.PioMatter(colorspace=piomatter.Colorspace.RGB888Packed,

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@ -13,11 +13,10 @@ The image is displayed until the user hits enter to exit.
import pathlib
import adafruit_blinka_raspberry_pi5_piomatter as piomatter
import numpy as np
import PIL.Image as Image
import adafruit_blinka_raspberry_pi5_piomatter as piomatter
geometry = piomatter.Geometry(width=64, height=64, n_addr_lines=5, rotation=piomatter.Orientation.Normal, n_planes=8)
framebuffer = np.asarray(Image.open(pathlib.Path(__file__).parent / "blinka64x64.png"))
matrix = piomatter.PioMatter(colorspace=piomatter.Colorspace.RGB888Packed, pinout=piomatter.Pinout.AdafruitMatrixBonnetBGR, framebuffer=framebuffer, geometry=geometry)

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@ -11,11 +11,10 @@ $ python simpletest.py
"""
import adafruit_blinka_raspberry_pi5_piomatter as piomatter
import numpy as np
from PIL import Image, ImageDraw
import adafruit_blinka_raspberry_pi5_piomatter as piomatter
width = 64
height = 32

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@ -1,46 +0,0 @@
#!/usr/bin/python3
# SPDX-FileCopyrightText: 2025 Tim Cocks for Adafruit Industries
#
# SPDX-License-Identifier: MIT
"""
Display a simple test pattern of 3 shapes on three 64x64 matrix panels
using Active3 compatible connections.
Run like this:
$ python triple_matrix_active3_simpletest.py
"""
import numpy as np
from PIL import Image, ImageDraw
import adafruit_blinka_raspberry_pi5_piomatter as piomatter
from adafruit_blinka_raspberry_pi5_piomatter.pixelmappers import simple_multilane_mapper
width = 64
n_lanes = 6
n_addr_lines = 5
height = n_lanes << n_addr_lines
pen_radius = 1
canvas = Image.new('RGB', (width, height), (0, 0, 0))
draw = ImageDraw.Draw(canvas)
pixelmap = simple_multilane_mapper(width, height, n_addr_lines, n_lanes)
geometry = piomatter.Geometry(width=width, height=height, n_addr_lines=n_addr_lines, n_planes=10, n_temporal_planes=4, map=pixelmap, n_lanes=n_lanes)
framebuffer = np.asarray(canvas) + 0 # Make a mutable copy
matrix = piomatter.PioMatter(colorspace=piomatter.Colorspace.RGB888Packed,
pinout=piomatter.Pinout.Active3,
framebuffer=framebuffer,
geometry=geometry)
draw.rectangle((8, 8, width-8, width-8), fill=0x008800)
draw.circle((32, 64+32), 22, fill=0x880000)
draw.polygon([(32, 136), (54, 180), (10, 180)], fill=0x000088)
framebuffer[:] = np.asarray(canvas)
matrix.show()
input("Press enter to exit")

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@ -20,56 +20,43 @@ Here's an example for running an emulator using a rom stored in "/tmp/snesrom.sm
$ python virtualdisplay.py --pinout AdafruitMatrixHatBGR --scale 2 --backend xvfb --width 128 --height 128 --serpentine --num-address-lines 5 --num-planes 4 -- mednafen -snes.xscalefs 1 -snes.yscalefs 1 -snes.xres 128 -video.fs 1 -video.driver softfb /tmp/snesrom.smc
"""
# To run a nice emulator:
import shlex
from subprocess import Popen
import adafruit_blinka_raspberry_pi5_piomatter as piomatter
import click
import numpy as np
from PIL import ImageEnhance
import piomatter_click
from pyvirtualdisplay.smartdisplay import SmartDisplay
import adafruit_blinka_raspberry_pi5_piomatter as piomatter
import adafruit_blinka_raspberry_pi5_piomatter.click as piomatter_click
from adafruit_blinka_raspberry_pi5_piomatter.pixelmappers import simple_multilane_mapper
@click.command
@click.option("--scale", type=float, help="The scale factor, larger numbers mean more virtual pixels", default=1)
@click.option("--backend", help="The pyvirtualdisplay backend to use", default="xvfb")
@click.option("--extra-args", help="Extra arguments to pass to the backend server", default="")
@click.option("--rfbport", help="The port number for the --backend xvnc", default=None, type=int)
@click.option("--brightness", help="The brightness factor of the image output to the matrix",
default=1.0, type=click.FloatRange(min=0.1, max=1.0))
@click.option("--use-xauth/--no-use-xauth", help="If a Xauthority file should be created", default=False)
@piomatter_click.standard_options
@click.argument("command", nargs=-1)
def main(scale, backend, use_xauth, extra_args, rfbport, brightness, width, height, serpentine, rotation, pinout,
n_planes, n_temporal_planes, n_addr_lines, n_lanes, command):
def main(scale, backend, use_xauth, extra_args, rfbport, width, height, serpentine, rotation, pinout, n_planes, n_addr_lines, command):
kwargs = {}
if backend == "xvnc":
kwargs['rfbport'] = rfbport
if extra_args:
kwargs['extra_args'] = shlex.split(extra_args)
print("xauth", use_xauth)
if n_lanes != 2:
pixelmap = simple_multilane_mapper(width, height, n_addr_lines, n_lanes)
geometry = piomatter.Geometry(width=width, height=height, n_planes=n_planes, n_addr_lines=n_addr_lines,
n_temporal_planes=n_temporal_planes, n_lanes=n_lanes, map=pixelmap)
else:
geometry = piomatter.Geometry(width=width, height=height, n_planes=n_planes, n_addr_lines=n_addr_lines,
n_temporal_planes=n_temporal_planes, rotation=rotation, serpentine=serpentine)
geometry = piomatter.Geometry(width=width, height=height, n_planes=n_planes, n_addr_lines=n_addr_lines, rotation=rotation)
framebuffer = np.zeros(shape=(geometry.height, geometry.width, 3), dtype=np.uint8)
matrix = piomatter.PioMatter(colorspace=piomatter.Colorspace.RGB888Packed, pinout=pinout, framebuffer=framebuffer, geometry=geometry)
with SmartDisplay(backend=backend, use_xauth=use_xauth, size=(round(width*scale),round(height*scale)), manage_global_env=False, **kwargs) as disp, Popen(command, env=disp.env()) as proc:
while proc.poll() is None:
img = disp.grab(autocrop=False)
if img is None:
continue
if brightness != 1.0:
darkener = ImageEnhance.Brightness(img)
img = darkener.enhance(brightness)
img = img.resize((width, height))
framebuffer[:, :] = np.array(img)
matrix.show()

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@ -1,83 +0,0 @@
#!/usr/bin/python3
"""
Display a (possibly scaled) X display to a matrix
The display runs until this script exits.
The display doesn't get a keyboard or mouse, so you have to use a program that
will get its input in some other way, such as from a gamepad.
For help with commandline arguments, run `python xdisplay_mirror.py --help`
This example command will mirror the entire display scaled onto a 2x2 grid of 64px panels, total matrix size 128x128.
$ python xdisplay_mirror.py --pinout AdafruitMatrixHatBGR --width 128 --height 128 --serpentine --num-address-lines 5 --num-planes 8
This example command will mirror a 128x128 pixel square from the top left of the display at real size on the same matrix panels
$ python xdisplay_mirror.py --pinout AdafruitMatrixHatBGR --width 128 --height 128 --serpentine --num-address-lines 5 --num-planes 8 --mirror-region 0,0,128,128
"""
import click
import numpy as np
from PIL import Image, ImageEnhance, ImageGrab
import adafruit_blinka_raspberry_pi5_piomatter as piomatter
import adafruit_blinka_raspberry_pi5_piomatter.click as piomatter_click
from adafruit_blinka_raspberry_pi5_piomatter.pixelmappers import simple_multilane_mapper
RESAMPLE_MAP = {
"nearest": Image.NEAREST,
"bilinear": Image.BILINEAR,
"lanczos": Image.LANCZOS,
"bicubic": Image.BICUBIC
}
@click.command
@click.option("--mirror-region", help="Region of X display to mirror. Comma seperated x,y,w,h. "
"Default will mirror entire display.", default="")
@click.option("--x-display", help="The X display to mirror. Default is :0", default=":0")
@click.option("--brightness", help="The brightness factor of the image output to the matrix",
default=1.0, type=click.FloatRange(min=0.1, max=1.0))
@click.option("--resample-method", type=click.Choice(RESAMPLE_MAP), default="nearest",
help="The resample method for PIL to use when resizing the screen image. Default is nearest")
@piomatter_click.standard_options(n_lanes=2, n_temporal_planes=0)
def main(width, height, serpentine, rotation, pinout, n_planes,
n_temporal_planes, n_addr_lines, n_lanes, mirror_region, x_display, resample_method, brightness):
if n_lanes != 2:
pixelmap = simple_multilane_mapper(width, height, n_addr_lines, n_lanes)
geometry = piomatter.Geometry(width=width, height=height, n_planes=n_planes, n_addr_lines=n_addr_lines,
n_temporal_planes=n_temporal_planes, n_lanes=n_lanes, map=pixelmap)
else:
geometry = piomatter.Geometry(width=width, height=height, n_planes=n_planes, n_addr_lines=n_addr_lines,
n_temporal_planes=n_temporal_planes, rotation=rotation, serpentine=serpentine)
framebuffer = np.zeros(shape=(geometry.height, geometry.width, 3), dtype=np.uint8)
matrix = piomatter.PioMatter(colorspace=piomatter.Colorspace.RGB888Packed, pinout=pinout, framebuffer=framebuffer,
geometry=geometry)
if mirror_region:
mirror_region = tuple(int(_) for _ in mirror_region.split(','))
else:
mirror_region = None
size_measure = ImageGrab.grab(xdisplay=":0")
print(f"Mirroring full display: {size_measure.width}, {size_measure.height}")
while True:
img = ImageGrab.grab(xdisplay=x_display)
if mirror_region is not None:
img = img.crop((mirror_region[0], mirror_region[1], # left,top
mirror_region[0] + mirror_region[2], # right
mirror_region[1] + mirror_region[3])) # bottom
if brightness != 1.0:
darkener = ImageEnhance.Brightness(img)
img = darkener.enhance(brightness)
img = img.resize((width, height), RESAMPLE_MAP[resample_method])
framebuffer[:, :] = np.array(img)
matrix.show()
if __name__ == '__main__':
main()

View file

@ -9,15 +9,14 @@ build-backend = "setuptools.build_meta"
[tool.setuptools_scm]
[tool.ruff]
lint.extend-select = [
extend-select = [
"B", # flake8-bugbear
"I", # isort
"PGH", # pygrep-hooks
"RUF", # Ruff-specific
"UP", # pyupgrade
]
lint.extend-ignore = [
extend-ignore = [
"E501", # Line too long
"RUF002", # Yes I meant to type 'multiplication sign'!
]
target-version = "py311"

View file

@ -3,6 +3,5 @@
# SPDX-License-Identifier: Unlicense
Adafruit-Blinka
adafruit-circuitpython-pioasm
click
numpy
pillow

View file

@ -11,7 +11,7 @@ __version__ = get_version()
# say from a submodule.
ext_modules = [
Pybind11Extension("adafruit_blinka_raspberry_pi5_piomatter._piomatter",
Pybind11Extension("adafruit_blinka_raspberry_pi5_piomatter",
["src/pymain.cpp", "src/piolib/piolib.c", "src/piolib/pio_rp1.c"],
define_macros = [('VERSION_INFO', __version__)],
include_dirs = ['./src/include', './src/piolib/include'],
@ -33,8 +33,6 @@ setup(
cmdclass={"build_ext": build_ext},
zip_safe=False,
python_requires=">=3.11",
packages=['adafruit_blinka_raspberry_pi5_piomatter'],
package_dir={'adafruit_blinka_raspberry_pi5_piomatter': 'src/adafruit_blinka_raspberry_pi5_piomatter'},
extras_require={
'docs': ["sphinx", "sphinx-rtd-theme", "sphinxcontrib-jquery"],
},

View file

@ -1,20 +0,0 @@
cmake_minimum_required(VERSION 3.12)
project(protodemo C CXX)
set(CMAKE_C_STANDARD 11)
set(CMAKE_CXX_STANDARD 20)
add_compile_options(-Wall -g3 -Og)
add_executable(protodemo
protodemo.cpp
piolib/piolib.c
piolib/pio_rp1.c
)
add_custom_command(
OUTPUT ${CMAKE_CURRENT_BINARY_DIR}/protomatter.pio.h
COMMAND python ${CMAKE_CURRENT_SOURCE_DIR}/assemble.py ${CMAKE_CURRENT_SOURCE_DIR}/protomatter.pio ${CMAKE_CURRENT_BINARY_DIR}/protomatter.pio.h
DEPENDS ${CMAKE_CURRENT_SOURCE_DIR}/assemble.py ${CMAKE_CURRENT_SOURCE_DIR}/protomatter.pio
)
target_include_directories(protodemo PRIVATE include piolib/include)

7
src/Makefile Normal file
View file

@ -0,0 +1,7 @@
protodemo: protodemo.c piolib/*.c include/piomatter/*.h include/piomatter/protomatter.pio.h Makefile
g++ -std=c++20 -O3 -ggdb -x c++ -Iinclude -Ipiolib/include -o $@ $(filter %.c, $^) -Wno-narrowing
matrixmap.h:
include/piomatter/protomatter.pio.h: protomatter.pio assemble.py
python assemble.py $< $@

View file

@ -1,33 +0,0 @@
"""
HUB75 matrix driver for Raspberry Pi 5 using PIO
------------------------------------------------
.. currentmodule:: adafruit_blinka_raspberry_pi5_piomatter
.. autosummary::
:toctree: _generate
:recursive:
:class: Orientation Pinout Colorspace Geometry PioMatter
Orientation
Pinout
Colorspace
Geometry
PioMatter
"""
from ._piomatter import (
Colorspace,
Geometry,
Orientation,
Pinout,
PioMatter,
)
__all__ = [
'Colorspace',
'Geometry',
'Orientation',
'Pinout',
'PioMatter',
]

View file

@ -1,30 +0,0 @@
"""Functions to define the layout of complex setups, particularly multi-connector matrices"""
def simple_multilane_mapper(width, height, n_addr_lines, n_lanes):
"""A simple mapper for 4+ pixel lanes
A framebuffer (width × height) is mapped onto a matrix where the lanes are stacked
top-to-bottom. Panels within a lane may be cascaded left-to-right.
Rotation is not supported, and neither are more complicated arrangements of panels
within a single chain (no support for serpentine or stacked panels within a segment)
.. code-block::
0 -> [panel] -> [panel]
1 -> [panel] -> [panel]
2 -> [panel] -> [panel]
"""
calc_height = n_lanes << n_addr_lines
if height != calc_height:
raise RuntimeError(f"Calculated height {calc_height} does not match requested height {height}")
n_addr = 1 << n_addr_lines
m = []
for addr in range(n_addr):
for x in range(width):
for lane in range(n_lanes):
y = addr + lane * n_addr
m.append(x + width * y)
return m

View file

@ -48,8 +48,7 @@ matrix_map make_matrixmap(size_t width, size_t height, size_t n_addr_lines,
size_t panel_height = 2 << n_addr_lines;
if (height % panel_height != 0) {
throw std::range_error(
"Overall height does not evenly divide calculated panel height");
throw std::range_error("Height does not evenly divide panel height");
}
size_t half_panel_height = 1u << n_addr_lines;
@ -81,116 +80,23 @@ matrix_map make_matrixmap(size_t width, size_t height, size_t n_addr_lines,
return result;
}
struct schedule_entry {
uint32_t shift, active_time;
};
using schedule = std::vector<schedule_entry>;
using schedule_sequence = std::vector<schedule>;
schedule_sequence rescale_schedule(schedule_sequence ss, size_t pixels_across) {
uint32_t max_active_time = 0;
for (auto &s : ss) {
for (auto &ent : s) {
max_active_time = std::max(ent.active_time, max_active_time);
}
}
if (max_active_time == 0 || max_active_time >= pixels_across) {
return ss;
}
int scale = (pixels_across + max_active_time - 1) / max_active_time;
for (auto &s : ss) {
for (auto &ent : s) {
ent.active_time *= scale;
}
}
return ss;
}
schedule_sequence make_simple_schedule(int n_planes, size_t pixels_across) {
if (n_planes < 1 || n_planes > 10) {
throw std::range_error("n_planes out of range");
}
schedule result;
for (int i = 0; i < n_planes; i++) {
result.emplace_back(9 - i, (1 << (n_planes - i - 1)));
}
return rescale_schedule({result}, pixels_across);
}
// Make a temporal dither schedule. All the top `n_planes` are shown everytime,
// but the lowest planes are done in a cycle of `n_temporal_planes`:
// 2: {0, 1}; 4: {0, 1, 2, 3}
schedule_sequence make_temporal_dither_schedule(int n_planes,
size_t pixels_across,
int n_temporal_planes) {
if (n_planes < 1 || n_planes > 10) {
throw std::range_error("n_planes out of range");
}
if (n_temporal_planes < 2) {
// either 0 or 1 temporal planes are not really temporal at all
return make_simple_schedule(n_planes, pixels_across);
}
if (n_temporal_planes >= n_planes) {
throw std::range_error("n_temporal_planes can't exceed n_planes");
}
int n_real_planes = n_planes - n_temporal_planes;
schedule_sequence result;
auto add_sched = [&result, n_real_planes,
n_temporal_planes](int i, int plane, int count) {
schedule sched;
for (int j = 0; j < n_real_planes; j++) {
int k = 1 << (n_temporal_planes + n_real_planes - j - 1);
sched.emplace_back(9 - j, (k + i) / n_temporal_planes);
}
sched.emplace_back(9 - plane, count);
result.emplace_back(sched);
};
for (int i = 0; i < n_temporal_planes; i++) {
add_sched(i, n_real_planes + i, 1 << (n_temporal_planes - i - 1));
}
return rescale_schedule(result, pixels_across);
}
struct matrix_geometry {
template <typename Cb>
matrix_geometry(size_t pixels_across, size_t n_addr_lines, int n_planes,
int n_temporal_planes, size_t width, size_t height,
bool serpentine, const Cb &cb)
: matrix_geometry(
pixels_across, n_addr_lines, n_planes, n_temporal_planes, width,
height,
make_matrixmap(width, height, n_addr_lines, serpentine, cb), 2) {}
matrix_geometry(size_t pixels_across, size_t n_addr_lines, int n_planes,
int n_temporal_planes, size_t width, size_t height,
matrix_map map, size_t n_lanes)
: matrix_geometry(pixels_across, n_addr_lines, width, height, map,
n_lanes,
make_temporal_dither_schedule(n_planes, pixels_across,
n_temporal_planes)) {}
matrix_geometry(size_t pixels_across, size_t n_addr_lines, size_t width,
size_t height, matrix_map map, size_t n_lanes,
const schedule_sequence &schedules)
size_t width, size_t height, bool serpentine, const Cb &cb)
: pixels_across(pixels_across), n_addr_lines(n_addr_lines),
n_lanes(n_lanes), width(width), height(height),
map(map), schedules{schedules} {
size_t pixels_down = n_lanes << n_addr_lines;
n_planes(n_planes), width(width),
height(height), map{make_matrixmap(width, height, n_addr_lines,
serpentine, cb)} {
size_t pixels_down = 2u << n_addr_lines;
if (map.size() != pixels_down * pixels_across) {
throw std::range_error(
"map size does not match calculated pixel count");
}
}
size_t pixels_across, n_addr_lines, n_lanes;
size_t pixels_across, n_addr_lines;
int n_planes;
size_t width, height;
matrix_map map;
schedule_sequence schedules;
};
} // namespace piomatter

View file

@ -19,7 +19,7 @@ struct adafruit_matrix_bonnet_pinout {
static constexpr uint32_t post_oe_delay = 0;
static constexpr uint32_t post_latch_delay = 0;
static constexpr uint32_t post_addr_delay = 5;
static constexpr uint32_t post_addr_delay = 500;
};
struct adafruit_matrix_bonnet_pinout_bgr {
@ -37,45 +37,7 @@ struct adafruit_matrix_bonnet_pinout_bgr {
static constexpr uint32_t post_oe_delay = 0;
static constexpr uint32_t post_latch_delay = 0;
static constexpr uint32_t post_addr_delay = 5;
};
struct active3_pinout {
static constexpr pin_t PIN_RGB[] = {11, 27, 7, 8, 9, 10, 12, 5, 6,
19, 13, 20, 14, 2, 3, 26, 16, 21};
static constexpr pin_t PIN_ADDR[] = {22, 23, 24, 25, 15};
static constexpr pin_t PIN_OE = 18; // /OE: output enable when LOW
static constexpr pin_t PIN_CLK = 17; // SRCLK: clocks on RISING edge
static constexpr pin_t PIN_LAT = 4; // RCLK: latches on RISING edge
static constexpr uint32_t clk_bit = 1u << PIN_CLK;
static constexpr uint32_t lat_bit = 1u << PIN_LAT;
static constexpr uint32_t oe_bit = 1u << PIN_OE;
static constexpr uint32_t oe_active = 0;
static constexpr uint32_t oe_inactive = oe_bit;
static constexpr uint32_t post_oe_delay = 0;
static constexpr uint32_t post_latch_delay = 0;
static constexpr uint32_t post_addr_delay = 5;
};
struct active3_pinout_bgr {
static constexpr pin_t PIN_RGB[] = {7, 27, 11, 10, 9, 8, 6, 5, 12,
20, 13, 19, 3, 2, 14, 21, 16, 26};
static constexpr pin_t PIN_ADDR[] = {22, 23, 24, 25, 15};
static constexpr pin_t PIN_OE = 18; // /OE: output enable when LOW
static constexpr pin_t PIN_CLK = 17; // SRCLK: clocks on RISING edge
static constexpr pin_t PIN_LAT = 4; // RCLK: latches on RISING edge
static constexpr uint32_t clk_bit = 1u << PIN_CLK;
static constexpr uint32_t lat_bit = 1u << PIN_LAT;
static constexpr uint32_t oe_bit = 1u << PIN_OE;
static constexpr uint32_t oe_active = 0;
static constexpr uint32_t oe_inactive = oe_bit;
static constexpr uint32_t post_oe_delay = 0;
static constexpr uint32_t post_latch_delay = 0;
static constexpr uint32_t post_addr_delay = 5;
static constexpr uint32_t post_addr_delay = 500;
};
} // namespace piomatter

View file

@ -12,42 +12,6 @@
namespace piomatter {
static int pio_sm_xfer_data_large(PIO pio, int sm, int direction, size_t size,
uint32_t *databuf) {
#if 0
// it would be NICE to gracefully fall back to blocked transfer, but sadly
// once the large xfer ioctl fails, future small xfers fail too.
static enum { UNKNOWN, OK, BAD } large_xfer_status = UNKNOWN;
printf("large_xfer_status=%d\n", large_xfer_status);
if (large_xfer_status != BAD) {
int r = pio_sm_xfer_data(pio, sm, direction, size, databuf);
if (large_xfer_status == UNKNOWN && r != 0) {
large_xfer_status = BAD;
fprintf(stderr,
"Transmission limit workaround engaged. May reduce quality of "
"output.\nSee https://github.com/raspberrypi/utils/issues/123 "
"for details.\n");
} else {
if (large_xfer_status == UNKNOWN && r == 0) {
large_xfer_status = OK;
}
return r;
}
}
#endif
constexpr size_t MAX_XFER = 65532;
while (size) {
size_t xfersize = std::min(size_t{MAX_XFER}, size);
int r = pio_sm_xfer_data(pio, sm, direction, xfersize, databuf);
if (r != 0) {
return r;
}
size -= xfersize;
databuf += xfersize / sizeof(*databuf);
}
return 0;
}
static uint64_t monotonicns64() {
struct timespec tp;
clock_gettime(CLOCK_MONOTONIC, &tp);
@ -56,13 +20,27 @@ static uint64_t monotonicns64() {
constexpr size_t MAX_XFER = 65532;
void pio_sm_xfer_data_large(PIO pio, int sm, int direction, size_t size,
uint32_t *databuf) {
while (size) {
size_t xfersize = std::min(size_t{MAX_XFER}, size);
int r = pio_sm_xfer_data(pio, sm, direction, xfersize, databuf);
if (r) {
throw std::runtime_error(
"pio_sm_xfer_data (reboot may be required)");
}
size -= xfersize;
databuf += xfersize / sizeof(*databuf);
}
}
struct piomatter_base {
piomatter_base() {}
piomatter_base(const piomatter_base &) = delete;
piomatter_base &operator=(const piomatter_base &) = delete;
virtual ~piomatter_base() {}
virtual int show() = 0;
virtual void show() = 0;
double fps;
};
@ -71,37 +49,23 @@ template <class pinout = adafruit_matrix_bonnet_pinout,
class colorspace = colorspace_rgb888>
struct piomatter : piomatter_base {
using buffer_type = std::vector<uint32_t>;
using bufseq_type = std::vector<buffer_type>;
piomatter(std::span<typename colorspace::data_type const> framebuffer,
const matrix_geometry &geometry)
: framebuffer(framebuffer), geometry{geometry}, converter{},
blitter_thread{} {
blitter_thread{&piomatter::blit_thread, this} {
if (geometry.n_addr_lines > std::size(pinout::PIN_ADDR)) {
throw std::runtime_error("too many address lines requested");
}
program_init();
blitter_thread = std::move(std::thread{&piomatter::blit_thread, this});
show();
}
int show() override {
int err = pending_error_errno.exchange(0); // we're handling this error
if (err != 0) {
return err;
}
void show() override {
int buffer_idx = manager.get_free_buffer();
auto &bufseq = buffers[buffer_idx];
bufseq.resize(geometry.schedules.size());
auto &buffer = buffers[buffer_idx];
auto converted = converter.convert(framebuffer);
auto old_active_time = geometry.schedules.back().back().active_time;
for (size_t i = 0; i < geometry.schedules.size(); i++) {
protomatter_render_rgb10<pinout>(bufseq[i], geometry,
geometry.schedules[i],
old_active_time, converted.data());
old_active_time = geometry.schedules[i].back().active_time;
}
protomatter_render_rgb10<pinout>(buffer, geometry, converted.data());
manager.put_filled_buffer(buffer_idx);
return 0;
}
~piomatter() {
@ -133,7 +97,7 @@ struct piomatter : piomatter_base {
if (sm < 0) {
throw std::runtime_error("pio_claim_unused_sm");
}
int r = pio_sm_config_xfer(pio, sm, PIO_DIR_TO_SM, MAX_XFER, 3);
int r = pio_sm_config_xfer(pio, sm, PIO_DIR_TO_SM, MAX_XFER, 2);
if (r) {
throw std::runtime_error("pio_sm_config_xfer");
}
@ -196,34 +160,26 @@ struct piomatter : piomatter_base {
}
void blit_thread() {
int cur_buffer_idx = buffer_manager::no_buffer;
const uint32_t *databuf = nullptr;
size_t datasize = 0;
int old_buffer_idx = buffer_manager::no_buffer;
int buffer_idx;
int seq_idx = -1;
uint64_t t0, t1;
t0 = monotonicns64();
while ((buffer_idx = manager.get_filled_buffer()) !=
buffer_manager::exit_request) {
if (buffer_idx != buffer_manager::no_buffer) {
if (cur_buffer_idx != buffer_manager::no_buffer) {
manager.put_free_buffer(cur_buffer_idx);
const auto &buffer = buffers[buffer_idx];
databuf = &buffer[0];
datasize = buffer.size() * sizeof(*databuf);
if (old_buffer_idx != buffer_manager::no_buffer) {
manager.put_free_buffer(old_buffer_idx);
}
cur_buffer_idx = buffer_idx;
old_buffer_idx = buffer_idx;
}
if (cur_buffer_idx != buffer_manager::no_buffer) {
const auto &cur_buf = buffers[cur_buffer_idx];
seq_idx = (seq_idx + 1) % cur_buf.size();
const auto &data = cur_buf[seq_idx];
auto datasize = sizeof(uint32_t) * data.size();
auto dataptr = const_cast<uint32_t *>(&data[0]);
// returns err = rp1_ioctl.... which seems to be a negative
// errno value
int r = pio_sm_xfer_data_large(pio, sm, PIO_DIR_TO_SM, datasize,
dataptr);
if (r != 0) {
pending_error_errno.store(errno);
printf("xfer_data() returned error %d (errno=%s)\n", r,
strerror(errno));
}
if (datasize) {
pio_sm_xfer_data_large(pio, sm, PIO_DIR_TO_SM, datasize,
(uint32_t *)databuf);
t1 = monotonicns64();
if (t0 != t1) {
fps = 1e9 / (t1 - t0);
@ -238,12 +194,11 @@ struct piomatter : piomatter_base {
PIO pio = NULL;
int sm = -1;
std::span<typename colorspace::data_type const> framebuffer;
bufseq_type buffers[3];
buffer_type buffers[3];
buffer_manager manager{};
matrix_geometry geometry;
colorspace converter;
std::thread blitter_thread;
std::atomic<int> pending_error_errno;
};
} // namespace piomatter

View file

@ -3,7 +3,7 @@
const int protomatter_wrap = 4;
const int protomatter_wrap_target = 0;
const int protomatter_sideset_pin_count = 1;
const bool protomatter_sideset_enable = 1;
const bool protomatter_sideset_enable = true;
const uint16_t protomatter[] = {
// ; data format (out-shift-right):
// ; MSB ... LSB

View file

@ -132,7 +132,6 @@ struct colorspace_rgb10 {
template <typename pinout>
void protomatter_render_rgb10(std::vector<uint32_t> &result,
const matrix_geometry &matrixmap,
const schedule &sched, uint32_t old_active_time,
const uint32_t *pixels) {
result.clear();
@ -154,7 +153,7 @@ void protomatter_render_rgb10(std::vector<uint32_t> &result,
data_count = n;
};
int32_t active_time = old_active_time;
int32_t active_time;
auto do_data_clk_active = [&active_time, &data_count, &result](uint32_t d) {
bool active = active_time > 0;
@ -184,42 +183,68 @@ void protomatter_render_rgb10(std::vector<uint32_t> &result,
return data;
};
auto add_pixels = [&do_data_clk_active,
&result](uint32_t addr_bits, bool r0, bool g0, bool b0,
bool r1, bool g1, bool b1) {
uint32_t data = addr_bits;
if (r0)
data |= (1 << pinout::PIN_RGB[0]);
if (g0)
data |= (1 << pinout::PIN_RGB[1]);
if (b0)
data |= (1 << pinout::PIN_RGB[2]);
if (r1)
data |= (1 << pinout::PIN_RGB[3]);
if (g1)
data |= (1 << pinout::PIN_RGB[4]);
if (b1)
data |= (1 << pinout::PIN_RGB[5]);
do_data_clk_active(data);
};
int last_bit = 0;
// illuminate the right row for data in the shift register (the previous
// address)
const size_t n_addr = 1u << matrixmap.n_addr_lines;
const int n_planes = matrixmap.n_planes;
constexpr size_t n_bits = 10u;
unsigned offset = n_bits - n_planes;
const size_t pixels_across = matrixmap.pixels_across;
size_t prev_addr = n_addr - 1;
uint32_t addr_bits = calc_addr_bits(prev_addr);
for (size_t addr = 0; addr < n_addr; addr++) {
for (auto &schedule_ent : sched) {
uint32_t r_mask = 1 << (20 + schedule_ent.shift);
uint32_t g_mask = 1 << (10 + schedule_ent.shift);
uint32_t b_mask = 1 << (0 + schedule_ent.shift);
// printf("addr=%zu/%zu\n", addr, n_addr);
for (int bit = n_planes - 1; bit >= 0; bit--) {
// printf("bit=%d/%d\n", bit, n_planes);
uint32_t r = 1 << (20 + offset + bit);
uint32_t g = 1 << (10 + offset + bit);
uint32_t b = 1 << (0 + offset + bit);
// the shortest /OE we can do is one DATA_OVERHEAD...
// TODO: should make sure desired duration of MSB is at least
// `pixels_across`
active_time = 1 << last_bit;
last_bit = bit;
prep_data(pixels_across);
auto mapiter = matrixmap.map.begin() +
matrixmap.n_lanes * addr * pixels_across;
auto mapiter = matrixmap.map.begin() + 2 * addr * pixels_across;
for (size_t x = 0; x < pixels_across; x++) {
uint32_t data = addr_bits;
for (size_t px = 0; px < matrixmap.n_lanes; px++) {
assert(mapiter != matrixmap.map.end());
auto pixel0 = pixels[*mapiter++];
auto r_bit = pixel0 & r_mask;
auto g_bit = pixel0 & g_mask;
auto b_bit = pixel0 & b_mask;
assert(mapiter != matrixmap.map.end());
auto pixel0 = pixels[*mapiter++];
auto r0 = pixel0 & r;
auto g0 = pixel0 & g;
auto b0 = pixel0 & b;
assert(mapiter != matrixmap.map.end());
auto pixel1 = pixels[*mapiter++];
auto r1 = pixel1 & r;
auto g1 = pixel1 & g;
auto b1 = pixel1 & b;
if (r_bit)
data |= (1 << pinout::PIN_RGB[px * 3 + 0]);
if (g_bit)
data |= (1 << pinout::PIN_RGB[px * 3 + 1]);
if (b_bit)
data |= (1 << pinout::PIN_RGB[px * 3 + 2]);
}
do_data_clk_active(data);
add_pixels(addr_bits, r0, g0, b0, r1, g1, b1);
}
do_data_delay(addr_bits | pinout::oe_active,
@ -231,8 +256,6 @@ void protomatter_render_rgb10(std::vector<uint32_t> &result,
do_data_delay(addr_bits | pinout::oe_inactive | pinout::lat_bit,
pinout::post_latch_delay);
active_time = schedule_ent.active_time;
// with oe inactive, set address bits to illuminate THIS line
if (addr != prev_addr) {
addr_bits = calc_addr_bits(addr);

View file

@ -8,16 +8,16 @@
#define _HARDWARE_CLOCKS_H
enum clock_index {
clk_gpout0 = 0, ///< GPIO Muxing 0
clk_gpout1, ///< GPIO Muxing 1
clk_gpout2, ///< GPIO Muxing 2
clk_gpout3, ///< GPIO Muxing 3
clk_ref, ///< Watchdog and timers reference clock
clk_sys, ///< Processors, bus fabric, memory, memory mapped registers
clk_peri, ///< Peripheral clock for UART and SPI
clk_usb, ///< USB clock
clk_adc, ///< ADC clock
clk_rtc, ///< Real time clock
clk_gpout0 = 0, ///< GPIO Muxing 0
clk_gpout1, ///< GPIO Muxing 1
clk_gpout2, ///< GPIO Muxing 2
clk_gpout3, ///< GPIO Muxing 3
clk_ref, ///< Watchdog and timers reference clock
clk_sys, ///< Processors, bus fabric, memory, memory mapped registers
clk_peri, ///< Peripheral clock for UART and SPI
clk_usb, ///< USB clock
clk_adc, ///< ADC clock
clk_rtc, ///< Real time clock
CLK_COUNT
};

View file

@ -39,14 +39,16 @@ enum gpio_irq_level {
};
enum gpio_override {
GPIO_OVERRIDE_NORMAL = 0, ///< peripheral signal selected via \ref gpio_set_function
GPIO_OVERRIDE_INVERT = 1, ///< invert peripheral signal selected via \ref gpio_set_function
GPIO_OVERRIDE_LOW = 2, ///< drive low/disable output
GPIO_OVERRIDE_HIGH = 3, ///< drive high/enable output
GPIO_OVERRIDE_NORMAL =
0, ///< peripheral signal selected via \ref gpio_set_function
GPIO_OVERRIDE_INVERT =
1, ///< invert peripheral signal selected via \ref gpio_set_function
GPIO_OVERRIDE_LOW = 2, ///< drive low/disable output
GPIO_OVERRIDE_HIGH = 3, ///< drive high/enable output
};
enum gpio_slew_rate {
GPIO_SLEW_RATE_SLOW = 0, ///< Slew rate limiting enabled
GPIO_SLEW_RATE_FAST = 1 ///< Slew rate limiting disabled
GPIO_SLEW_RATE_SLOW = 0, ///< Slew rate limiting enabled
GPIO_SLEW_RATE_FAST = 1 ///< Slew rate limiting disabled
};
enum gpio_drive_strength {

View file

@ -9,18 +9,21 @@
//#include "pico.h"
/** \brief PIO instruction encoding
/** \brief PIO instruction encoding
* \defgroup pio_instructions pio_instructions
* \ingroup hardware_pio
*
* Functions for generating PIO instruction encodings programmatically. In debug builds
*`PARAM_ASSERTIONS_ENABLED_PIO_INSTRUCTIONS` can be set to 1 to enable validation of encoding function
* parameters.
*
* For fuller descriptions of the instructions in question see the "RP2040 Datasheet"
* Functions for generating PIO instruction encodings programmatically. In debug
*builds `PARAM_ASSERTIONS_ENABLED_PIO_INSTRUCTIONS` can be set to 1 to enable
*validation of encoding function parameters.
*
* For fuller descriptions of the instructions in question see the "RP2040
*Datasheet"
*/
// PICO_CONFIG: PARAM_ASSERTIONS_ENABLED_PIO_INSTRUCTIONS, Enable/disable assertions in the PIO instructions, type=bool, default=0, group=pio_instructions
// PICO_CONFIG: PARAM_ASSERTIONS_ENABLED_PIO_INSTRUCTIONS, Enable/disable
// assertions in the PIO instructions, type=bool, default=0,
// group=pio_instructions
#ifndef PARAM_ASSERTIONS_ENABLED_PIO_INSTRUCTIONS
#define PARAM_ASSERTIONS_ENABLED_PIO_INSTRUCTIONS 0
#endif
@ -42,44 +45,48 @@ enum pio_instr_bits {
};
#ifndef NDEBUG
#define _PIO_INVALID_IN_SRC 0x08u
#define _PIO_INVALID_IN_SRC 0x08u
#define _PIO_INVALID_OUT_DEST 0x10u
#define _PIO_INVALID_SET_DEST 0x20u
#define _PIO_INVALID_MOV_SRC 0x40u
#define _PIO_INVALID_MOV_SRC 0x40u
#define _PIO_INVALID_MOV_DEST 0x80u
#else
#define _PIO_INVALID_IN_SRC 0u
#define _PIO_INVALID_IN_SRC 0u
#define _PIO_INVALID_OUT_DEST 0u
#define _PIO_INVALID_SET_DEST 0u
#define _PIO_INVALID_MOV_SRC 0u
#define _PIO_INVALID_MOV_SRC 0u
#define _PIO_INVALID_MOV_DEST 0u
#endif
/*! \brief Enumeration of values to pass for source/destination args for instruction encoding functions
* \ingroup pio_instructions
/*! \brief Enumeration of values to pass for source/destination args for
* instruction encoding functions \ingroup pio_instructions
*
* \note Not all values are suitable for all functions. Validity is only checked in debug mode when
* `PARAM_ASSERTIONS_ENABLED_PIO_INSTRUCTIONS` is 1
* \note Not all values are suitable for all functions. Validity is only checked
* in debug mode when `PARAM_ASSERTIONS_ENABLED_PIO_INSTRUCTIONS` is 1
*/
enum pio_src_dest {
pio_pins = 0u,
pio_x = 1u,
pio_y = 2u,
pio_null = 3u | _PIO_INVALID_SET_DEST | _PIO_INVALID_MOV_DEST,
pio_pindirs = 4u | _PIO_INVALID_IN_SRC | _PIO_INVALID_MOV_SRC | _PIO_INVALID_MOV_DEST,
pio_exec_mov = 4u | _PIO_INVALID_IN_SRC | _PIO_INVALID_OUT_DEST | _PIO_INVALID_SET_DEST | _PIO_INVALID_MOV_SRC,
pio_status = 5u | _PIO_INVALID_IN_SRC | _PIO_INVALID_OUT_DEST | _PIO_INVALID_SET_DEST | _PIO_INVALID_MOV_DEST,
pio_pc = 5u | _PIO_INVALID_IN_SRC | _PIO_INVALID_SET_DEST | _PIO_INVALID_MOV_SRC,
pio_pindirs =
4u | _PIO_INVALID_IN_SRC | _PIO_INVALID_MOV_SRC | _PIO_INVALID_MOV_DEST,
pio_exec_mov = 4u | _PIO_INVALID_IN_SRC | _PIO_INVALID_OUT_DEST |
_PIO_INVALID_SET_DEST | _PIO_INVALID_MOV_SRC,
pio_status = 5u | _PIO_INVALID_IN_SRC | _PIO_INVALID_OUT_DEST |
_PIO_INVALID_SET_DEST | _PIO_INVALID_MOV_DEST,
pio_pc =
5u | _PIO_INVALID_IN_SRC | _PIO_INVALID_SET_DEST | _PIO_INVALID_MOV_SRC,
pio_isr = 6u | _PIO_INVALID_SET_DEST,
pio_osr = 7u | _PIO_INVALID_OUT_DEST | _PIO_INVALID_SET_DEST,
pio_exec_out = 7u | _PIO_INVALID_IN_SRC | _PIO_INVALID_SET_DEST | _PIO_INVALID_MOV_SRC | _PIO_INVALID_MOV_DEST,
pio_exec_out = 7u | _PIO_INVALID_IN_SRC | _PIO_INVALID_SET_DEST |
_PIO_INVALID_MOV_SRC | _PIO_INVALID_MOV_DEST,
};
static inline uint _pio_major_instr_bits(uint instr) {
return instr & 0xe000u;
}
static inline uint _pio_major_instr_bits(uint instr) { return instr & 0xe000u; }
static inline uint _pio_encode_instr_and_args(enum pio_instr_bits instr_bits, uint arg1, uint arg2) {
static inline uint _pio_encode_instr_and_args(enum pio_instr_bits instr_bits,
uint arg1, uint arg2) {
valid_params_if(PIO_INSTRUCTIONS, arg1 <= 0x7);
#if PARAM_ASSERTIONS_ENABLED(PIO_INSTRUCTIONS)
uint32_t major = _pio_major_instr_bits(instr_bits);
@ -92,17 +99,21 @@ static inline uint _pio_encode_instr_and_args(enum pio_instr_bits instr_bits, ui
return instr_bits | (arg1 << 5u) | (arg2 & 0x1fu);
}
static inline uint _pio_encode_instr_and_src_dest(enum pio_instr_bits instr_bits, enum pio_src_dest dest, uint value) {
static inline uint
_pio_encode_instr_and_src_dest(enum pio_instr_bits instr_bits,
enum pio_src_dest dest, uint value) {
return _pio_encode_instr_and_args(instr_bits, dest & 7u, value);
}
/*! \brief Encode just the delay slot bits of an instruction
* \ingroup pio_instructions
*
* \note This function does not return a valid instruction encoding; instead it returns an encoding of the delay
* slot suitable for `OR`ing with the result of an encoding function for an actual instruction. Care should be taken when
* combining the results of this function with the results of \ref pio_encode_sideset and \ref pio_encode_sideset_opt
* as they share the same bits within the instruction encoding.
* \note This function does not return a valid instruction encoding; instead it
* returns an encoding of the delay slot suitable for `OR`ing with the result of
* an encoding function for an actual instruction. Care should be taken when
* combining the results of this function with the results of \ref
* pio_encode_sideset and \ref pio_encode_sideset_opt as they share the same
* bits within the instruction encoding.
*
* \param cycles the number of cycles 0-31 (or less if side set is being used)
* \return the delay slot bits to be ORed with an instruction encoding
@ -113,38 +124,42 @@ static inline uint pio_encode_delay(uint cycles) {
return cycles << 8u;
}
/*! \brief Encode just the side set bits of an instruction (in non optional side set mode)
* \ingroup pio_instructions
/*! \brief Encode just the side set bits of an instruction (in non optional side
* set mode) \ingroup pio_instructions
*
* \note This function does not return a valid instruction encoding; instead it returns an encoding of the side set bits
* suitable for `OR`ing with the result of an encoding function for an actual instruction. Care should be taken when
* combining the results of this function with the results of \ref pio_encode_delay as they share the same bits
* within the instruction encoding.
* \note This function does not return a valid instruction encoding; instead it
* returns an encoding of the side set bits suitable for `OR`ing with the result
* of an encoding function for an actual instruction. Care should be taken when
* combining the results of this function with the results of \ref
* pio_encode_delay as they share the same bits within the instruction encoding.
*
* \param sideset_bit_count number of side set bits as would be specified via `.sideset` in pioasm
* \param value the value to sideset on the pins
* \return the side set bits to be ORed with an instruction encoding
* \param sideset_bit_count number of side set bits as would be specified via
* `.sideset` in pioasm \param value the value to sideset on the pins \return
* the side set bits to be ORed with an instruction encoding
*/
static inline uint pio_encode_sideset(uint sideset_bit_count, uint value) {
valid_params_if(PIO_INSTRUCTIONS, sideset_bit_count >= 1 && sideset_bit_count <= 5);
valid_params_if(PIO_INSTRUCTIONS,
sideset_bit_count >= 1 && sideset_bit_count <= 5);
valid_params_if(PIO_INSTRUCTIONS, value <= ((1u << sideset_bit_count) - 1));
return value << (13u - sideset_bit_count);
}
/*! \brief Encode just the side set bits of an instruction (in optional -`opt` side set mode)
* \ingroup pio_instructions
/*! \brief Encode just the side set bits of an instruction (in optional -`opt`
* side set mode) \ingroup pio_instructions
*
* \note This function does not return a valid instruction encoding; instead it returns an encoding of the side set bits
* suitable for `OR`ing with the result of an encoding function for an actual instruction. Care should be taken when
* combining the results of this function with the results of \ref pio_encode_delay as they share the same bits
* within the instruction encoding.
* \note This function does not return a valid instruction encoding; instead it
* returns an encoding of the side set bits suitable for `OR`ing with the result
* of an encoding function for an actual instruction. Care should be taken when
* combining the results of this function with the results of \ref
* pio_encode_delay as they share the same bits within the instruction encoding.
*
* \param sideset_bit_count number of side set bits as would be specified via `.sideset <n> opt` in pioasm
* \param value the value to sideset on the pins
* \param sideset_bit_count number of side set bits as would be specified via
* `.sideset <n> opt` in pioasm \param value the value to sideset on the pins
* \return the side set bits to be ORed with an instruction encoding
*/
static inline uint pio_encode_sideset_opt(uint sideset_bit_count, uint value) {
valid_params_if(PIO_INSTRUCTIONS, sideset_bit_count >= 1 && sideset_bit_count <= 4);
valid_params_if(PIO_INSTRUCTIONS,
sideset_bit_count >= 1 && sideset_bit_count <= 4);
valid_params_if(PIO_INSTRUCTIONS, value <= ((1u << sideset_bit_count) - 1));
return 0x1000u | value << (12u - sideset_bit_count);
}
@ -154,9 +169,9 @@ static inline uint pio_encode_sideset_opt(uint sideset_bit_count, uint value) {
*
* This is the equivalent of `JMP <addr>`
*
* \param addr The target address 0-31 (an absolute address within the PIO instruction memory)
* \return The instruction encoding with 0 delay and no side set value
* \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
* \param addr The target address 0-31 (an absolute address within the PIO
* instruction memory) \return The instruction encoding with 0 delay and no side
* set value \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
*/
static inline uint pio_encode_jmp(uint addr) {
return _pio_encode_instr_and_args(pio_instr_bits_jmp, 0, addr);
@ -167,22 +182,22 @@ static inline uint pio_encode_jmp(uint addr) {
*
* This is the equivalent of `JMP !X <addr>`
*
* \param addr The target address 0-31 (an absolute address within the PIO instruction memory)
* \return The instruction encoding with 0 delay and no side set value
* \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
* \param addr The target address 0-31 (an absolute address within the PIO
* instruction memory) \return The instruction encoding with 0 delay and no side
* set value \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
*/
static inline uint pio_encode_jmp_not_x(uint addr) {
return _pio_encode_instr_and_args(pio_instr_bits_jmp, 1, addr);
}
/*! \brief Encode a conditional JMP if scratch X non-zero (and post-decrement X) instruction
* \ingroup pio_instructions
/*! \brief Encode a conditional JMP if scratch X non-zero (and post-decrement X)
* instruction \ingroup pio_instructions
*
* This is the equivalent of `JMP X-- <addr>`
*
* \param addr The target address 0-31 (an absolute address within the PIO instruction memory)
* \return The instruction encoding with 0 delay and no side set value
* \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
* \param addr The target address 0-31 (an absolute address within the PIO
* instruction memory) \return The instruction encoding with 0 delay and no side
* set value \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
*/
static inline uint pio_encode_jmp_x_dec(uint addr) {
return _pio_encode_instr_and_args(pio_instr_bits_jmp, 2, addr);
@ -193,22 +208,22 @@ static inline uint pio_encode_jmp_x_dec(uint addr) {
*
* This is the equivalent of `JMP !Y <addr>`
*
* \param addr The target address 0-31 (an absolute address within the PIO instruction memory)
* \return The instruction encoding with 0 delay and no side set value
* \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
* \param addr The target address 0-31 (an absolute address within the PIO
* instruction memory) \return The instruction encoding with 0 delay and no side
* set value \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
*/
static inline uint pio_encode_jmp_not_y(uint addr) {
return _pio_encode_instr_and_args(pio_instr_bits_jmp, 3, addr);
}
/*! \brief Encode a conditional JMP if scratch Y non-zero (and post-decrement Y) instruction
* \ingroup pio_instructions
/*! \brief Encode a conditional JMP if scratch Y non-zero (and post-decrement Y)
* instruction \ingroup pio_instructions
*
* This is the equivalent of `JMP Y-- <addr>`
*
* \param addr The target address 0-31 (an absolute address within the PIO instruction memory)
* \return The instruction encoding with 0 delay and no side set value
* \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
* \param addr The target address 0-31 (an absolute address within the PIO
* instruction memory) \return The instruction encoding with 0 delay and no side
* set value \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
*/
static inline uint pio_encode_jmp_y_dec(uint addr) {
return _pio_encode_instr_and_args(pio_instr_bits_jmp, 4, addr);
@ -219,9 +234,9 @@ static inline uint pio_encode_jmp_y_dec(uint addr) {
*
* This is the equivalent of `JMP X!=Y <addr>`
*
* \param addr The target address 0-31 (an absolute address within the PIO instruction memory)
* \return The instruction encoding with 0 delay and no side set value
* \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
* \param addr The target address 0-31 (an absolute address within the PIO
* instruction memory) \return The instruction encoding with 0 delay and no side
* set value \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
*/
static inline uint pio_encode_jmp_x_ne_y(uint addr) {
return _pio_encode_instr_and_args(pio_instr_bits_jmp, 5, addr);
@ -232,22 +247,22 @@ static inline uint pio_encode_jmp_x_ne_y(uint addr) {
*
* This is the equivalent of `JMP PIN <addr>`
*
* \param addr The target address 0-31 (an absolute address within the PIO instruction memory)
* \return The instruction encoding with 0 delay and no side set value
* \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
* \param addr The target address 0-31 (an absolute address within the PIO
* instruction memory) \return The instruction encoding with 0 delay and no side
* set value \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
*/
static inline uint pio_encode_jmp_pin(uint addr) {
return _pio_encode_instr_and_args(pio_instr_bits_jmp, 6, addr);
}
/*! \brief Encode a conditional JMP if output shift register not empty instruction
* \ingroup pio_instructions
/*! \brief Encode a conditional JMP if output shift register not empty
* instruction \ingroup pio_instructions
*
* This is the equivalent of `JMP !OSRE <addr>`
*
* \param addr The target address 0-31 (an absolute address within the PIO instruction memory)
* \return The instruction encoding with 0 delay and no side set value
* \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
* \param addr The target address 0-31 (an absolute address within the PIO
* instruction memory) \return The instruction encoding with 0 delay and no side
* set value \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
*/
static inline uint pio_encode_jmp_not_osre(uint addr) {
return _pio_encode_instr_and_args(pio_instr_bits_jmp, 7, addr);
@ -269,7 +284,8 @@ static inline uint _pio_encode_irq(bool relative, uint irq) {
* \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
*/
static inline uint pio_encode_wait_gpio(bool polarity, uint gpio) {
return _pio_encode_instr_and_args(pio_instr_bits_wait, 0u | (polarity ? 4u : 0u), gpio);
return _pio_encode_instr_and_args(pio_instr_bits_wait,
0u | (polarity ? 4u : 0u), gpio);
}
/*! \brief Encode a WAIT for pin instruction
@ -278,12 +294,13 @@ static inline uint pio_encode_wait_gpio(bool polarity, uint gpio) {
* This is the equivalent of `WAIT <polarity> PIN <pin>`
*
* \param polarity true for `WAIT 1`, false for `WAIT 0`
* \param pin The pin number 0-31 relative to the executing SM's input pin mapping
* \return The instruction encoding with 0 delay and no side set value
* \param pin The pin number 0-31 relative to the executing SM's input pin
* mapping \return The instruction encoding with 0 delay and no side set value
* \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
*/
static inline uint pio_encode_wait_pin(bool polarity, uint pin) {
return _pio_encode_instr_and_args(pio_instr_bits_wait, 1u | (polarity ? 4u : 0u), pin);
return _pio_encode_instr_and_args(pio_instr_bits_wait,
1u | (polarity ? 4u : 0u), pin);
}
/*! \brief Encode a WAIT for IRQ instruction
@ -292,14 +309,16 @@ static inline uint pio_encode_wait_pin(bool polarity, uint pin) {
* This is the equivalent of `WAIT <polarity> IRQ <irq> <relative>`
*
* \param polarity true for `WAIT 1`, false for `WAIT 0`
* \param relative true for a `WAIT IRQ <irq> REL`, false for regular `WAIT IRQ <irq>`
* \param irq the irq number 0-7
* \return The instruction encoding with 0 delay and no side set value
* \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
* \param relative true for a `WAIT IRQ <irq> REL`, false for regular `WAIT IRQ
* <irq>` \param irq the irq number 0-7 \return The instruction encoding with 0
* delay and no side set value \see pio_encode_delay, pio_encode_sideset,
* pio_encode_sideset_opt
*/
static inline uint pio_encode_wait_irq(bool polarity, bool relative, uint irq) {
valid_params_if(PIO_INSTRUCTIONS, irq <= 7);
return _pio_encode_instr_and_args(pio_instr_bits_wait, 2u | (polarity ? 4u : 0u), _pio_encode_irq(relative, irq));
return _pio_encode_instr_and_args(pio_instr_bits_wait,
2u | (polarity ? 4u : 0u),
_pio_encode_irq(relative, irq));
}
/*! \brief Encode an IN instruction
@ -343,7 +362,8 @@ static inline uint pio_encode_out(enum pio_src_dest dest, uint count) {
* \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
*/
static inline uint pio_encode_push(bool if_full, bool block) {
return _pio_encode_instr_and_args(pio_instr_bits_push, (if_full ? 2u : 0u) | (block ? 1u : 0u), 0);
return _pio_encode_instr_and_args(
pio_instr_bits_push, (if_full ? 2u : 0u) | (block ? 1u : 0u), 0);
}
/*! \brief Encode a PULL instruction
@ -357,7 +377,8 @@ static inline uint pio_encode_push(bool if_full, bool block) {
* \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
*/
static inline uint pio_encode_pull(bool if_empty, bool block) {
return _pio_encode_instr_and_args(pio_instr_bits_pull, (if_empty ? 2u : 0u) | (block ? 1u : 0u), 0);
return _pio_encode_instr_and_args(
pio_instr_bits_pull, (if_empty ? 2u : 0u) | (block ? 1u : 0u), 0);
}
/*! \brief Encode a MOV instruction
@ -370,7 +391,8 @@ static inline uint pio_encode_pull(bool if_empty, bool block) {
* \return The instruction encoding with 0 delay and no side set value
* \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
*/
static inline uint pio_encode_mov(enum pio_src_dest dest, enum pio_src_dest src) {
static inline uint pio_encode_mov(enum pio_src_dest dest,
enum pio_src_dest src) {
valid_params_if(PIO_INSTRUCTIONS, !(dest & _PIO_INVALID_MOV_DEST));
valid_params_if(PIO_INSTRUCTIONS, !(src & _PIO_INVALID_MOV_SRC));
return _pio_encode_instr_and_src_dest(pio_instr_bits_mov, dest, src & 7u);
@ -386,10 +408,12 @@ static inline uint pio_encode_mov(enum pio_src_dest dest, enum pio_src_dest src)
* \return The instruction encoding with 0 delay and no side set value
* \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
*/
static inline uint pio_encode_mov_not(enum pio_src_dest dest, enum pio_src_dest src) {
static inline uint pio_encode_mov_not(enum pio_src_dest dest,
enum pio_src_dest src) {
valid_params_if(PIO_INSTRUCTIONS, !(dest & _PIO_INVALID_MOV_DEST));
valid_params_if(PIO_INSTRUCTIONS, !(src & _PIO_INVALID_MOV_SRC));
return _pio_encode_instr_and_src_dest(pio_instr_bits_mov, dest, (1u << 3u) | (src & 7u));
return _pio_encode_instr_and_src_dest(pio_instr_bits_mov, dest,
(1u << 3u) | (src & 7u));
}
/*! \brief Encode a MOV instruction with bit reverse
@ -402,10 +426,12 @@ static inline uint pio_encode_mov_not(enum pio_src_dest dest, enum pio_src_dest
* \return The instruction encoding with 0 delay and no side set value
* \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
*/
static inline uint pio_encode_mov_reverse(enum pio_src_dest dest, enum pio_src_dest src) {
static inline uint pio_encode_mov_reverse(enum pio_src_dest dest,
enum pio_src_dest src) {
valid_params_if(PIO_INSTRUCTIONS, !(dest & _PIO_INVALID_MOV_DEST));
valid_params_if(PIO_INSTRUCTIONS, !(src & _PIO_INVALID_MOV_SRC));
return _pio_encode_instr_and_src_dest(pio_instr_bits_mov, dest, (2u << 3u) | (src & 7u));
return _pio_encode_instr_and_src_dest(pio_instr_bits_mov, dest,
(2u << 3u) | (src & 7u));
}
/*! \brief Encode a IRQ SET instruction
@ -413,13 +439,14 @@ static inline uint pio_encode_mov_reverse(enum pio_src_dest dest, enum pio_src_d
*
* This is the equivalent of `IRQ SET <irq> <relative>`
*
* \param relative true for a `IRQ SET <irq> REL`, false for regular `IRQ SET <irq>`
* \param irq the irq number 0-7
* \return The instruction encoding with 0 delay and no side set value
* \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
* \param relative true for a `IRQ SET <irq> REL`, false for regular `IRQ SET
* <irq>` \param irq the irq number 0-7 \return The instruction encoding with 0
* delay and no side set value \see pio_encode_delay, pio_encode_sideset,
* pio_encode_sideset_opt
*/
static inline uint pio_encode_irq_set(bool relative, uint irq) {
return _pio_encode_instr_and_args(pio_instr_bits_irq, 0, _pio_encode_irq(relative, irq));
return _pio_encode_instr_and_args(pio_instr_bits_irq, 0,
_pio_encode_irq(relative, irq));
}
/*! \brief Encode a IRQ WAIT instruction
@ -427,13 +454,14 @@ static inline uint pio_encode_irq_set(bool relative, uint irq) {
*
* This is the equivalent of `IRQ WAIT <irq> <relative>`
*
* \param relative true for a `IRQ WAIT <irq> REL`, false for regular `IRQ WAIT <irq>`
* \param irq the irq number 0-7
* \return The instruction encoding with 0 delay and no side set value
* \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
* \param relative true for a `IRQ WAIT <irq> REL`, false for regular `IRQ WAIT
* <irq>` \param irq the irq number 0-7 \return The instruction encoding with 0
* delay and no side set value \see pio_encode_delay, pio_encode_sideset,
* pio_encode_sideset_opt
*/
static inline uint pio_encode_irq_wait(bool relative, uint irq) {
return _pio_encode_instr_and_args(pio_instr_bits_irq, 1, _pio_encode_irq(relative, irq));
return _pio_encode_instr_and_args(pio_instr_bits_irq, 1,
_pio_encode_irq(relative, irq));
}
/*! \brief Encode a IRQ CLEAR instruction
@ -441,13 +469,14 @@ static inline uint pio_encode_irq_wait(bool relative, uint irq) {
*
* This is the equivalent of `IRQ CLEAR <irq> <relative>`
*
* \param relative true for a `IRQ CLEAR <irq> REL`, false for regular `IRQ CLEAR <irq>`
* \param irq the irq number 0-7
* \return The instruction encoding with 0 delay and no side set value
* \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
* \param relative true for a `IRQ CLEAR <irq> REL`, false for regular `IRQ
* CLEAR <irq>` \param irq the irq number 0-7 \return The instruction encoding
* with 0 delay and no side set value \see pio_encode_delay, pio_encode_sideset,
* pio_encode_sideset_opt
*/
static inline uint pio_encode_irq_clear(bool relative, uint irq) {
return _pio_encode_instr_and_args(pio_instr_bits_irq, 2, _pio_encode_irq(relative, irq));
return _pio_encode_instr_and_args(pio_instr_bits_irq, 2,
_pio_encode_irq(relative, irq));
}
/*! \brief Encode a SET instruction
@ -473,9 +502,7 @@ static inline uint pio_encode_set(enum pio_src_dest dest, uint value) {
* \return The instruction encoding with 0 delay and no side set value
* \see pio_encode_delay, pio_encode_sideset, pio_encode_sideset_opt
*/
static inline uint pio_encode_nop(void) {
return pio_encode_mov(pio_y, pio_y);
}
static inline uint pio_encode_nop(void) { return pio_encode_mov(pio_y, pio_y); }
#ifdef __cplusplus
}

File diff suppressed because it is too large Load diff

View file

@ -1,11 +0,0 @@
// SPDX-License-Identifier: GPL-2.0
/*
* Copyright (c) 2024 Raspberry Pi Ltd.
* All rights reserved.
*/
#ifndef _HARDWARE_TIMER_H
#define _HARDWARE_TIMER_H
#include "piolib.h"
#endif

View file

@ -25,17 +25,27 @@
#define PARAM_ASSERTIONS_DISABLE_ALL 0
#endif
#define PARAM_ASSERTIONS_ENABLED(x) ((PARAM_ASSERTIONS_ENABLED_ ## x || PARAM_ASSERTIONS_ENABLE_ALL) && !PARAM_ASSERTIONS_DISABLE_ALL)
#define invalid_params_if(x, test) ({if (PARAM_ASSERTIONS_ENABLED(x)) assert(!(test));})
#define valid_params_if(x, test) ({if (PARAM_ASSERTIONS_ENABLED(x)) assert(test);})
#define PARAM_ASSERTIONS_ENABLED(x) \
((PARAM_ASSERTIONS_ENABLED_##x || PARAM_ASSERTIONS_ENABLE_ALL) && \
!PARAM_ASSERTIONS_DISABLE_ALL)
#define invalid_params_if(x, test) \
({ \
if (PARAM_ASSERTIONS_ENABLED(x)) \
assert(!(test)); \
})
#define valid_params_if(x, test) \
({ \
if (PARAM_ASSERTIONS_ENABLED(x)) \
assert(test); \
})
#define STATIC_ASSERT(cond) static_assert(cond, #cond)
#define _u(x) ((uint)(x))
#define bool_to_bit(x) ((uint)!!(x))
#define bool_to_bit(x) ((uint) !!(x))
#ifndef count_of
#define count_of(a) (sizeof(a)/sizeof((a)[0]))
#define count_of(a) (sizeof(a) / sizeof((a)[0]))
#endif
typedef unsigned int uint;

View file

@ -11,39 +11,32 @@
extern "C" {
#endif
#include "pio_platform.h"
#include "hardware/clocks.h"
#include "hardware/gpio.h"
#include "pio_platform.h"
#ifndef PARAM_ASSERTIONS_ENABLED_PIO
#define PARAM_ASSERTIONS_ENABLED_PIO 0
#endif
#define PIO_ERR(x)((PIO)(uintptr_t)(x))
#define PIO_IS_ERR(x)(((uintptr_t)(x) >= (uintptr_t)-200))
#define PIO_ERR_VAL(x)((int)(uintptr_t)(x))
#define PIO_ERR(x) ((PIO)(uintptr_t)(x))
#define PIO_IS_ERR(x) (((uintptr_t)(x) >= (uintptr_t)-200))
#define PIO_ERR_VAL(x) ((int)(uintptr_t)(x))
#define PIO_ORIGIN_ANY ((uint)(~0))
#define PIO_ORIGIN_INVALID PIO_ORIGIN_ANY
#define PIO_ORIGIN_ANY ((uint)(~0))
#define PIO_ORIGIN_INVALID PIO_ORIGIN_ANY
#define pio0 pio_open_helper(0)
enum pio_fifo_join {
PIO_FIFO_JOIN_NONE = 0,
PIO_FIFO_JOIN_TX = 1,
PIO_FIFO_JOIN_RX = 2,
PIO_FIFO_JOIN_NONE = 0,
PIO_FIFO_JOIN_TX = 1,
PIO_FIFO_JOIN_RX = 2,
};
enum pio_mov_status_type {
STATUS_TX_LESSTHAN = 0,
STATUS_RX_LESSTHAN = 1
};
enum pio_mov_status_type { STATUS_TX_LESSTHAN = 0, STATUS_RX_LESSTHAN = 1 };
enum pio_xfer_dir {
PIO_DIR_TO_SM,
PIO_DIR_FROM_SM,
PIO_DIR_COUNT
};
enum pio_xfer_dir { PIO_DIR_TO_SM, PIO_DIR_FROM_SM, PIO_DIR_COUNT };
#ifndef PIOLIB_INTERNALS
@ -60,16 +53,16 @@ enum pio_instr_bits {
};
#ifndef NDEBUG
#define _PIO_INVALID_IN_SRC 0x08u
#define _PIO_INVALID_IN_SRC 0x08u
#define _PIO_INVALID_OUT_DEST 0x10u
#define _PIO_INVALID_SET_DEST 0x20u
#define _PIO_INVALID_MOV_SRC 0x40u
#define _PIO_INVALID_MOV_SRC 0x40u
#define _PIO_INVALID_MOV_DEST 0x80u
#else
#define _PIO_INVALID_IN_SRC 0u
#define _PIO_INVALID_IN_SRC 0u
#define _PIO_INVALID_OUT_DEST 0u
#define _PIO_INVALID_SET_DEST 0u
#define _PIO_INVALID_MOV_SRC 0u
#define _PIO_INVALID_MOV_SRC 0u
#define _PIO_INVALID_MOV_DEST 0u
#endif
@ -78,13 +71,18 @@ enum pio_src_dest {
pio_x = 1u,
pio_y = 2u,
pio_null = 3u | _PIO_INVALID_SET_DEST | _PIO_INVALID_MOV_DEST,
pio_pindirs = 4u | _PIO_INVALID_IN_SRC | _PIO_INVALID_MOV_SRC | _PIO_INVALID_MOV_DEST,
pio_exec_mov = 4u | _PIO_INVALID_IN_SRC | _PIO_INVALID_OUT_DEST | _PIO_INVALID_SET_DEST | _PIO_INVALID_MOV_SRC,
pio_status = 5u | _PIO_INVALID_IN_SRC | _PIO_INVALID_OUT_DEST | _PIO_INVALID_SET_DEST | _PIO_INVALID_MOV_DEST,
pio_pc = 5u | _PIO_INVALID_IN_SRC | _PIO_INVALID_SET_DEST | _PIO_INVALID_MOV_SRC,
pio_pindirs =
4u | _PIO_INVALID_IN_SRC | _PIO_INVALID_MOV_SRC | _PIO_INVALID_MOV_DEST,
pio_exec_mov = 4u | _PIO_INVALID_IN_SRC | _PIO_INVALID_OUT_DEST |
_PIO_INVALID_SET_DEST | _PIO_INVALID_MOV_SRC,
pio_status = 5u | _PIO_INVALID_IN_SRC | _PIO_INVALID_OUT_DEST |
_PIO_INVALID_SET_DEST | _PIO_INVALID_MOV_DEST,
pio_pc =
5u | _PIO_INVALID_IN_SRC | _PIO_INVALID_SET_DEST | _PIO_INVALID_MOV_SRC,
pio_isr = 6u | _PIO_INVALID_SET_DEST,
pio_osr = 7u | _PIO_INVALID_OUT_DEST | _PIO_INVALID_SET_DEST,
pio_exec_out = 7u | _PIO_INVALID_IN_SRC | _PIO_INVALID_SET_DEST | _PIO_INVALID_MOV_SRC | _PIO_INVALID_MOV_DEST,
pio_exec_out = 7u | _PIO_INVALID_IN_SRC | _PIO_INVALID_SET_DEST |
_PIO_INVALID_MOV_SRC | _PIO_INVALID_MOV_DEST,
};
#endif
@ -115,12 +113,17 @@ struct pio_chip {
int (*open_instance)(PIO pio);
void (*close_instance)(PIO pio);
int (*pio_sm_config_xfer)(PIO pio, uint sm, uint dir, uint buf_size, uint buf_count);
int (*pio_sm_xfer_data)(PIO pio, uint sm, uint dir, uint data_bytes, void *data);
int (*pio_sm_config_xfer)(PIO pio, uint sm, uint dir, uint buf_size,
uint buf_count);
int (*pio_sm_xfer_data)(PIO pio, uint sm, uint dir, uint data_bytes,
void *data);
bool (*pio_can_add_program_at_offset)(PIO pio, const pio_program_t *program, uint offset);
uint (*pio_add_program_at_offset)(PIO pio, const pio_program_t *program, uint offset);
bool (*pio_remove_program)(PIO pio, const pio_program_t *program, uint loaded_offset);
bool (*pio_can_add_program_at_offset)(PIO pio, const pio_program_t *program,
uint offset);
uint (*pio_add_program_at_offset)(PIO pio, const pio_program_t *program,
uint offset);
bool (*pio_remove_program)(PIO pio, const pio_program_t *program,
uint loaded_offset);
bool (*pio_clear_instruction_memory)(PIO pio);
uint (*pio_encode_delay)(PIO pio, uint cycles);
uint (*pio_encode_sideset)(PIO pio, uint sideset_bit_count, uint value);
@ -135,14 +138,18 @@ struct pio_chip {
uint (*pio_encode_jmp_not_osre)(PIO pio, uint addr);
uint (*pio_encode_wait_gpio)(PIO pio, bool polarity, uint gpio);
uint (*pio_encode_wait_pin)(PIO pio, bool polarity, uint pin);
uint (*pio_encode_wait_irq)(PIO pio, bool polarity, bool relative, uint irq);
uint (*pio_encode_wait_irq)(PIO pio, bool polarity, bool relative,
uint irq);
uint (*pio_encode_in)(PIO pio, enum pio_src_dest src, uint count);
uint (*pio_encode_out)(PIO pio, enum pio_src_dest dest, uint count);
uint (*pio_encode_push)(PIO pio, bool if_full, bool block);
uint (*pio_encode_pull)(PIO pio, bool if_empty, bool block);
uint (*pio_encode_mov)(PIO pio, enum pio_src_dest dest, enum pio_src_dest src);
uint (*pio_encode_mov_not)(PIO pio, enum pio_src_dest dest, enum pio_src_dest src);
uint (*pio_encode_mov_reverse)(PIO pio, enum pio_src_dest dest, enum pio_src_dest src);
uint (*pio_encode_mov)(PIO pio, enum pio_src_dest dest,
enum pio_src_dest src);
uint (*pio_encode_mov_not)(PIO pio, enum pio_src_dest dest,
enum pio_src_dest src);
uint (*pio_encode_mov_reverse)(PIO pio, enum pio_src_dest dest,
enum pio_src_dest src);
uint (*pio_encode_irq_set)(PIO pio, bool relative, uint irq);
uint (*pio_encode_irq_wait)(PIO pio, bool relative, uint irq);
uint (*pio_encode_irq_clear)(PIO pio, bool relative, uint irq);
@ -155,16 +162,21 @@ struct pio_chip {
bool (*pio_sm_unclaim)(PIO pio, uint sm);
bool (*pio_sm_is_claimed)(PIO pio, uint sm);
void (*pio_sm_init)(PIO pio, uint sm, uint initial_pc, const pio_sm_config *config);
void (*pio_sm_init)(PIO pio, uint sm, uint initial_pc,
const pio_sm_config *config);
void (*pio_sm_set_config)(PIO pio, uint sm, const pio_sm_config *config);
void (*pio_sm_exec)(PIO pio, uint sm, uint instr, bool blocking);
void (*pio_sm_clear_fifos)(PIO pio, uint sm);
void (*pio_sm_set_clkdiv_int_frac)(PIO pio, uint sm, uint16_t div_int, uint8_t div_frac);
void (*pio_sm_set_clkdiv_int_frac)(PIO pio, uint sm, uint16_t div_int,
uint8_t div_frac);
void (*pio_sm_set_clkdiv)(PIO pio, uint sm, float div);
void (*pio_sm_set_pins)(PIO pio, uint sm, uint32_t pin_values);
void (*pio_sm_set_pins_with_mask)(PIO pio, uint sm, uint32_t pin_values, uint32_t pin_mask);
void (*pio_sm_set_pindirs_with_mask)(PIO pio, uint sm, uint32_t pin_dirs, uint32_t pin_mask);
void (*pio_sm_set_consecutive_pindirs)(PIO pio, uint sm, uint pin_base, uint pin_count, bool is_out);
void (*pio_sm_set_pins_with_mask)(PIO pio, uint sm, uint32_t pin_values,
uint32_t pin_mask);
void (*pio_sm_set_pindirs_with_mask)(PIO pio, uint sm, uint32_t pin_dirs,
uint32_t pin_mask);
void (*pio_sm_set_consecutive_pindirs)(PIO pio, uint sm, uint pin_base,
uint pin_count, bool is_out);
void (*pio_sm_set_enabled)(PIO pio, uint sm, bool enabled);
void (*pio_sm_set_enabled_mask)(PIO pio, uint32_t mask, bool enabled);
void (*pio_sm_restart)(PIO pio, uint sm);
@ -184,23 +196,34 @@ struct pio_chip {
void (*pio_sm_drain_tx_fifo)(PIO pio, uint sm);
pio_sm_config (*pio_get_default_sm_config)(PIO pio);
void (*smc_set_out_pins)(PIO pio, pio_sm_config *c, uint out_base, uint out_count);
void (*smc_set_set_pins)(PIO pio, pio_sm_config *c, uint set_base, uint set_count);
void (*smc_set_out_pins)(PIO pio, pio_sm_config *c, uint out_base,
uint out_count);
void (*smc_set_set_pins)(PIO pio, pio_sm_config *c, uint set_base,
uint set_count);
void (*smc_set_in_pins)(PIO pio, pio_sm_config *c, uint in_base);
void (*smc_set_sideset_pins)(PIO pio, pio_sm_config *c, uint sideset_base);
void (*smc_set_sideset)(PIO pio, pio_sm_config *c, uint bit_count, bool optional, bool pindirs);
void (*smc_set_clkdiv_int_frac)(PIO pio, pio_sm_config *c, uint16_t div_int, uint8_t div_frac);
void (*smc_set_sideset)(PIO pio, pio_sm_config *c, uint bit_count,
bool optional, bool pindirs);
void (*smc_set_clkdiv_int_frac)(PIO pio, pio_sm_config *c, uint16_t div_int,
uint8_t div_frac);
void (*smc_set_clkdiv)(PIO pio, pio_sm_config *c, float div);
void (*smc_set_wrap)(PIO pio, pio_sm_config *c, uint wrap_target, uint wrap);
void (*smc_set_wrap)(PIO pio, pio_sm_config *c, uint wrap_target,
uint wrap);
void (*smc_set_jmp_pin)(PIO pio, pio_sm_config *c, uint pin);
void (*smc_set_in_shift)(PIO pio, pio_sm_config *c, bool shift_right, bool autopush, uint push_threshold);
void (*smc_set_out_shift)(PIO pio, pio_sm_config *c, bool shift_right, bool autopull, uint pull_threshold);
void (*smc_set_fifo_join)(PIO pio, pio_sm_config *c, enum pio_fifo_join join);
void (*smc_set_out_special)(PIO pio, pio_sm_config *c, bool sticky, bool has_enable_pin, uint enable_pin_index);
void (*smc_set_mov_status)(PIO pio, pio_sm_config *c, enum pio_mov_status_type status_sel, uint status_n);
void (*smc_set_in_shift)(PIO pio, pio_sm_config *c, bool shift_right,
bool autopush, uint push_threshold);
void (*smc_set_out_shift)(PIO pio, pio_sm_config *c, bool shift_right,
bool autopull, uint pull_threshold);
void (*smc_set_fifo_join)(PIO pio, pio_sm_config *c,
enum pio_fifo_join join);
void (*smc_set_out_special)(PIO pio, pio_sm_config *c, bool sticky,
bool has_enable_pin, uint enable_pin_index);
void (*smc_set_mov_status)(PIO pio, pio_sm_config *c,
enum pio_mov_status_type status_sel,
uint status_n);
uint32_t (*clock_get_hz)(PIO pio, enum clock_index clk_index);
void (*pio_gpio_init)(PIO, uint pin);
void (*pio_gpio_init)(PIO pio, uint pin);
void (*gpio_init)(PIO pio, uint gpio);
void (*gpio_set_function)(PIO pio, uint gpio, enum gpio_function fn);
void (*gpio_set_pulls)(PIO pio, uint gpio, bool up, bool down);
@ -208,7 +231,8 @@ struct pio_chip {
void (*gpio_set_inover)(PIO pio, uint gpio, uint value);
void (*gpio_set_oeover)(PIO pio, uint gpio, uint value);
void (*gpio_set_input_enabled)(PIO pio, uint gpio, bool enabled);
void (*gpio_set_drive_strength)(PIO pio, uint gpio, enum gpio_drive_strength drive);
void (*gpio_set_drive_strength)(PIO pio, uint gpio,
enum gpio_drive_strength drive);
};
struct pio_instance {
@ -228,74 +252,58 @@ int pio_get_index(PIO pio);
void pio_select(PIO pio);
PIO pio_get_current(void);
static inline void pio_error(PIO pio, const char *msg)
{
static inline void pio_error(PIO pio, const char *msg) {
pio->error = true;
if (pio->errors_are_fatal)
pio_panic(msg);
}
static inline bool pio_get_error(PIO pio)
{
return pio->error;
}
static inline bool pio_get_error(PIO pio) { return pio->error; }
static inline void pio_clear_error(PIO pio)
{
pio->error = false;
}
static inline void pio_clear_error(PIO pio) { pio->error = false; }
static inline void pio_enable_fatal_errors(PIO pio, bool enable)
{
static inline void pio_enable_fatal_errors(PIO pio, bool enable) {
pio->errors_are_fatal = enable;
}
static inline uint pio_get_sm_count(PIO pio)
{
return pio->chip->sm_count;
}
static inline uint pio_get_sm_count(PIO pio) { return pio->chip->sm_count; }
static inline uint pio_get_instruction_count(PIO pio)
{
static inline uint pio_get_instruction_count(PIO pio) {
return pio->chip->instr_count;
}
static inline uint pio_get_fifo_depth(PIO pio)
{
return pio->chip->fifo_depth;
}
static inline uint pio_get_fifo_depth(PIO pio) { return pio->chip->fifo_depth; }
static inline void check_pio_param(__unused PIO pio)
{
static inline void check_pio_param(__unused PIO pio) {
valid_params_if(PIO, pio_get_index(pio) >= 0);
}
static inline int pio_sm_config_xfer(PIO pio, uint sm, uint dir, uint buf_size, uint buf_count)
{
static inline int pio_sm_config_xfer(PIO pio, uint sm, uint dir, uint buf_size,
uint buf_count) {
check_pio_param(pio);
return pio->chip->pio_sm_config_xfer(pio, sm, dir, buf_size, buf_count);
}
static inline int pio_sm_xfer_data(PIO pio, uint sm, uint dir, uint data_bytes, void *data)
{
static inline int pio_sm_xfer_data(PIO pio, uint sm, uint dir, uint data_bytes,
void *data) {
check_pio_param(pio);
return pio->chip->pio_sm_xfer_data(pio, sm, dir, data_bytes, data);
}
static inline bool pio_can_add_program(PIO pio, const pio_program_t *program)
{
static inline bool pio_can_add_program(PIO pio, const pio_program_t *program) {
check_pio_param(pio);
return pio->chip->pio_can_add_program_at_offset(pio, program, PIO_ORIGIN_ANY);
return pio->chip->pio_can_add_program_at_offset(pio, program,
PIO_ORIGIN_ANY);
}
static inline bool pio_can_add_program_at_offset(PIO pio, const pio_program_t *program, uint offset)
{
static inline bool pio_can_add_program_at_offset(PIO pio,
const pio_program_t *program,
uint offset) {
check_pio_param(pio);
return pio->chip->pio_can_add_program_at_offset(pio, program, offset);
}
static inline uint pio_add_program(PIO pio, const pio_program_t *program)
{
static inline uint pio_add_program(PIO pio, const pio_program_t *program) {
uint offset;
check_pio_param(pio);
offset = pio->chip->pio_add_program_at_offset(pio, program, PIO_ORIGIN_ANY);
@ -304,548 +312,492 @@ static inline uint pio_add_program(PIO pio, const pio_program_t *program)
return offset;
}
static inline void pio_add_program_at_offset(PIO pio, const pio_program_t *program, uint offset)
{
static inline void
pio_add_program_at_offset(PIO pio, const pio_program_t *program, uint offset) {
check_pio_param(pio);
if (pio->chip->pio_add_program_at_offset(pio, program, offset) == PIO_ORIGIN_INVALID)
if (pio->chip->pio_add_program_at_offset(pio, program, offset) ==
PIO_ORIGIN_INVALID)
pio_error(pio, "No program space");
}
static inline void pio_remove_program(PIO pio, const pio_program_t *program, uint loaded_offset)
{
static inline void pio_remove_program(PIO pio, const pio_program_t *program,
uint loaded_offset) {
check_pio_param(pio);
if (!pio->chip->pio_remove_program(pio, program, loaded_offset))
pio_error(pio, "Failed to remove program");
}
static inline void pio_clear_instruction_memory(PIO pio)
{
static inline void pio_clear_instruction_memory(PIO pio) {
check_pio_param(pio);
if (!pio->chip->pio_clear_instruction_memory(pio))
pio_error(pio, "Failed to clear instruction memory");
}
static inline uint pio_encode_delay(uint cycles)
{
static inline uint pio_encode_delay(uint cycles) {
PIO pio = pio_get_current();
return pio->chip->pio_encode_delay(pio, cycles);
}
static inline uint pio_encode_sideset(uint sideset_bit_count, uint value)
{
static inline uint pio_encode_sideset(uint sideset_bit_count, uint value) {
PIO pio = pio_get_current();
return pio->chip->pio_encode_sideset(pio, sideset_bit_count, value);
}
static inline uint pio_encode_sideset_opt(uint sideset_bit_count, uint value)
{
static inline uint pio_encode_sideset_opt(uint sideset_bit_count, uint value) {
PIO pio = pio_get_current();
return pio->chip->pio_encode_sideset_opt(pio, sideset_bit_count, value);
}
static inline uint pio_encode_jmp(uint addr)
{
static inline uint pio_encode_jmp(uint addr) {
PIO pio = pio_get_current();
return pio->chip->pio_encode_jmp(pio, addr);
}
static inline uint pio_encode_jmp_not_x(uint addr)
{
static inline uint pio_encode_jmp_not_x(uint addr) {
PIO pio = pio_get_current();
return pio->chip->pio_encode_jmp_not_x(pio, addr);
}
static inline uint pio_encode_jmp_x_dec(uint addr)
{
static inline uint pio_encode_jmp_x_dec(uint addr) {
PIO pio = pio_get_current();
return pio->chip->pio_encode_jmp_x_dec(pio, addr);
}
static inline uint pio_encode_jmp_not_y(uint addr)
{
static inline uint pio_encode_jmp_not_y(uint addr) {
PIO pio = pio_get_current();
return pio->chip->pio_encode_jmp_not_y(pio, addr);
}
static inline uint pio_encode_jmp_y_dec(uint addr)
{
static inline uint pio_encode_jmp_y_dec(uint addr) {
PIO pio = pio_get_current();
return pio->chip->pio_encode_jmp_y_dec(pio, addr);
}
static inline uint pio_encode_jmp_x_ne_y(uint addr)
{
static inline uint pio_encode_jmp_x_ne_y(uint addr) {
PIO pio = pio_get_current();
return pio->chip->pio_encode_jmp_x_ne_y(pio, addr);
}
static inline uint pio_encode_jmp_pin(uint addr)
{
static inline uint pio_encode_jmp_pin(uint addr) {
PIO pio = pio_get_current();
return pio->chip->pio_encode_jmp_pin(pio, addr);
}
static inline uint pio_encode_jmp_not_osre(uint addr)
{
static inline uint pio_encode_jmp_not_osre(uint addr) {
PIO pio = pio_get_current();
return pio->chip->pio_encode_jmp_not_osre(pio, addr);
}
static inline uint pio_encode_wait_gpio(bool polarity, uint gpio)
{
static inline uint pio_encode_wait_gpio(bool polarity, uint gpio) {
PIO pio = pio_get_current();
return pio->chip->pio_encode_wait_gpio(pio, polarity, gpio);
}
static inline uint pio_encode_wait_pin(bool polarity, uint pin)
{
static inline uint pio_encode_wait_pin(bool polarity, uint pin) {
PIO pio = pio_get_current();
return pio->chip->pio_encode_wait_pin(pio, polarity, pin);
}
static inline uint pio_encode_wait_irq(bool polarity, bool relative, uint irq)
{
static inline uint pio_encode_wait_irq(bool polarity, bool relative, uint irq) {
PIO pio = pio_get_current();
return pio->chip->pio_encode_wait_irq(pio, polarity, relative, irq);
}
static inline uint pio_encode_in(enum pio_src_dest src, uint count)
{
static inline uint pio_encode_in(enum pio_src_dest src, uint count) {
PIO pio = pio_get_current();
return pio->chip->pio_encode_in(pio, src, count);
}
static inline uint pio_encode_out(enum pio_src_dest dest, uint count)
{
static inline uint pio_encode_out(enum pio_src_dest dest, uint count) {
PIO pio = pio_get_current();
return pio->chip->pio_encode_out(pio, dest, count);
}
static inline uint pio_encode_push(bool if_full, bool block)
{
static inline uint pio_encode_push(bool if_full, bool block) {
PIO pio = pio_get_current();
return pio->chip->pio_encode_push(pio, if_full, block);
}
static inline uint pio_encode_pull(bool if_empty, bool block)
{
static inline uint pio_encode_pull(bool if_empty, bool block) {
PIO pio = pio_get_current();
return pio->chip->pio_encode_pull(pio, if_empty, block);
}
static inline uint pio_encode_mov(enum pio_src_dest dest, enum pio_src_dest src)
{
static inline uint pio_encode_mov(enum pio_src_dest dest,
enum pio_src_dest src) {
PIO pio = pio_get_current();
return pio->chip->pio_encode_mov(pio, dest, src);
}
static inline uint pio_encode_mov_not(enum pio_src_dest dest, enum pio_src_dest src)
{
static inline uint pio_encode_mov_not(enum pio_src_dest dest,
enum pio_src_dest src) {
PIO pio = pio_get_current();
return pio->chip->pio_encode_mov_not(pio, dest, src);
}
static inline uint pio_encode_mov_reverse(enum pio_src_dest dest, enum pio_src_dest src)
{
static inline uint pio_encode_mov_reverse(enum pio_src_dest dest,
enum pio_src_dest src) {
PIO pio = pio_get_current();
return pio->chip->pio_encode_mov_reverse(pio, dest, src);
}
static inline uint pio_encode_irq_set(bool relative, uint irq)
{
static inline uint pio_encode_irq_set(bool relative, uint irq) {
PIO pio = pio_get_current();
return pio->chip->pio_encode_irq_set(pio, relative, irq);
}
static inline uint pio_encode_irq_wait(bool relative, uint irq)
{
static inline uint pio_encode_irq_wait(bool relative, uint irq) {
PIO pio = pio_get_current();
return pio->chip->pio_encode_irq_wait(pio, relative, irq);
}
static inline uint pio_encode_irq_clear(bool relative, uint irq)
{
static inline uint pio_encode_irq_clear(bool relative, uint irq) {
PIO pio = pio_get_current();
return pio->chip->pio_encode_irq_clear(pio, relative, irq);
}
static inline uint pio_encode_set(enum pio_src_dest dest, uint value)
{
static inline uint pio_encode_set(enum pio_src_dest dest, uint value) {
PIO pio = pio_get_current();
return pio->chip->pio_encode_set(pio, dest, value);
}
static inline uint pio_encode_nop(void)
{
static inline uint pio_encode_nop(void) {
PIO pio = pio_get_current();
return pio->chip->pio_encode_nop(pio);
}
static inline void pio_sm_claim(PIO pio, uint sm)
{
static inline void pio_sm_claim(PIO pio, uint sm) {
check_pio_param(pio);
if (!pio->chip->pio_sm_claim(pio, sm))
pio_error(pio, "Failed to claim SM");
}
static inline void pio_claim_sm_mask(PIO pio, uint mask)
{
static inline void pio_claim_sm_mask(PIO pio, uint mask) {
check_pio_param(pio);
if (!pio->chip->pio_sm_claim_mask(pio, mask))
pio_error(pio, "Failed to claim masked SMs");
}
static inline void pio_sm_unclaim(PIO pio, uint sm)
{
static inline void pio_sm_unclaim(PIO pio, uint sm) {
check_pio_param(pio);
pio->chip->pio_sm_unclaim(pio, sm);
}
static inline int pio_claim_unused_sm(PIO pio, bool required)
{
static inline int pio_claim_unused_sm(PIO pio, bool required) {
check_pio_param(pio);
return pio->chip->pio_sm_claim_unused(pio, required);
}
static inline bool pio_sm_is_claimed(PIO pio, uint sm)
{
static inline bool pio_sm_is_claimed(PIO pio, uint sm) {
check_pio_param(pio);
return pio->chip->pio_sm_is_claimed(pio, sm);
}
static inline void pio_sm_init(PIO pio, uint sm, uint initial_pc, const pio_sm_config *config)
{
static inline void pio_sm_init(PIO pio, uint sm, uint initial_pc,
const pio_sm_config *config) {
check_pio_param(pio);
pio->chip->pio_sm_init(pio, sm, initial_pc, config);
}
static inline void pio_sm_set_config(PIO pio, uint sm, const pio_sm_config *config)
{
static inline void pio_sm_set_config(PIO pio, uint sm,
const pio_sm_config *config) {
check_pio_param(pio);
pio->chip->pio_sm_set_config(pio, sm, config);
}
static inline void pio_sm_exec(PIO pio, uint sm, uint instr)
{
static inline void pio_sm_exec(PIO pio, uint sm, uint instr) {
check_pio_param(pio);
pio->chip->pio_sm_exec(pio, sm, instr, false);
}
static inline void pio_sm_exec_wait_blocking(PIO pio, uint sm, uint instr)
{
static inline void pio_sm_exec_wait_blocking(PIO pio, uint sm, uint instr) {
check_pio_param(pio);
pio->chip->pio_sm_exec(pio, sm, instr, true);
}
static inline void pio_sm_clear_fifos(PIO pio, uint sm)
{
static inline void pio_sm_clear_fifos(PIO pio, uint sm) {
check_pio_param(pio);
pio->chip->pio_sm_clear_fifos(pio, sm);
}
static inline void pio_sm_set_clkdiv_int_frac(PIO pio, uint sm, uint16_t div_int, uint8_t div_frac)
{
static inline void pio_sm_set_clkdiv_int_frac(PIO pio, uint sm,
uint16_t div_int,
uint8_t div_frac) {
check_pio_param(pio);
pio->chip->pio_sm_set_clkdiv_int_frac(pio, sm, div_int, div_frac);
}
static inline void pio_sm_set_clkdiv(PIO pio, uint sm, float div)
{
static inline void pio_sm_set_clkdiv(PIO pio, uint sm, float div) {
check_pio_param(pio);
pio->chip->pio_sm_set_clkdiv(pio, sm, div);
}
static inline void pio_sm_set_pins(PIO pio, uint sm, uint32_t pin_values)
{
static inline void pio_sm_set_pins(PIO pio, uint sm, uint32_t pin_values) {
check_pio_param(pio);
pio->chip->pio_sm_set_pins(pio, sm, pin_values);
}
static inline void pio_sm_set_pins_with_mask(PIO pio, uint sm, uint32_t pin_values, uint32_t pin_mask)
{
static inline void pio_sm_set_pins_with_mask(PIO pio, uint sm,
uint32_t pin_values,
uint32_t pin_mask) {
check_pio_param(pio);
pio->chip->pio_sm_set_pins_with_mask(pio, sm, pin_values, pin_mask);
}
static inline void pio_sm_set_pindirs_with_mask(PIO pio, uint sm, uint32_t pin_dirs, uint32_t pin_mask)
{
static inline void pio_sm_set_pindirs_with_mask(PIO pio, uint sm,
uint32_t pin_dirs,
uint32_t pin_mask) {
check_pio_param(pio);
pio->chip->pio_sm_set_pindirs_with_mask(pio, sm, pin_dirs, pin_mask);
}
static inline void pio_sm_set_consecutive_pindirs(PIO pio, uint sm, uint pin_base, uint pin_count, bool is_out)
{
static inline void pio_sm_set_consecutive_pindirs(PIO pio, uint sm,
uint pin_base, uint pin_count,
bool is_out) {
check_pio_param(pio);
pio->chip->pio_sm_set_consecutive_pindirs(pio, sm, pin_base, pin_count, is_out);
pio->chip->pio_sm_set_consecutive_pindirs(pio, sm, pin_base, pin_count,
is_out);
}
static inline void pio_sm_set_enabled(PIO pio, uint sm, bool enabled)
{
static inline void pio_sm_set_enabled(PIO pio, uint sm, bool enabled) {
check_pio_param(pio);
pio->chip->pio_sm_set_enabled(pio, sm, enabled);
}
static inline void pio_set_sm_mask_enabled(PIO pio, uint32_t mask, bool enabled)
{
static inline void pio_set_sm_mask_enabled(PIO pio, uint32_t mask,
bool enabled) {
check_pio_param(pio);
pio->chip->pio_sm_set_enabled_mask(pio, mask, enabled);
}
static inline void pio_sm_restart(PIO pio, uint sm)
{
static inline void pio_sm_restart(PIO pio, uint sm) {
check_pio_param(pio);
pio->chip->pio_sm_restart(pio, sm);
}
static inline void pio_restart_sm_mask(PIO pio, uint32_t mask)
{
static inline void pio_restart_sm_mask(PIO pio, uint32_t mask) {
check_pio_param(pio);
pio->chip->pio_sm_restart_mask(pio, mask);
}
static inline void pio_sm_clkdiv_restart(PIO pio, uint sm)
{
static inline void pio_sm_clkdiv_restart(PIO pio, uint sm) {
check_pio_param(pio);
pio->chip->pio_sm_clkdiv_restart(pio, sm);
}
static inline void pio_clkdiv_restart_sm_mask(PIO pio, uint32_t mask)
{
static inline void pio_clkdiv_restart_sm_mask(PIO pio, uint32_t mask) {
check_pio_param(pio);
pio->chip->pio_sm_clkdiv_restart_mask(pio, mask);
}
static inline void pio_enable_sm_in_sync_mask(PIO pio, uint32_t mask)
{
static inline void pio_enable_sm_in_sync_mask(PIO pio, uint32_t mask) {
check_pio_param(pio);
pio->chip->pio_sm_enable_sync(pio, mask);
};
static inline void pio_sm_set_dmactrl(PIO pio, uint sm, bool is_tx, uint32_t ctrl)
{
static inline void pio_sm_set_dmactrl(PIO pio, uint sm, bool is_tx,
uint32_t ctrl) {
check_pio_param(pio);
pio->chip->pio_sm_set_dmactrl(pio, sm, is_tx, ctrl);
};
static inline bool pio_sm_is_rx_fifo_empty(PIO pio, uint sm)
{
static inline bool pio_sm_is_rx_fifo_empty(PIO pio, uint sm) {
check_pio_param(pio);
return pio->chip->pio_sm_is_rx_fifo_empty(pio, sm);
}
static inline bool pio_sm_is_rx_fifo_full(PIO pio, uint sm)
{
static inline bool pio_sm_is_rx_fifo_full(PIO pio, uint sm) {
check_pio_param(pio);
return pio->chip->pio_sm_is_rx_fifo_full(pio, sm);
}
static inline uint pio_sm_get_rx_fifo_level(PIO pio, uint sm)
{
static inline uint pio_sm_get_rx_fifo_level(PIO pio, uint sm) {
check_pio_param(pio);
return pio->chip->pio_sm_get_rx_fifo_level(pio, sm);
}
static inline bool pio_sm_is_tx_fifo_empty(PIO pio, uint sm)
{
static inline bool pio_sm_is_tx_fifo_empty(PIO pio, uint sm) {
check_pio_param(pio);
return pio->chip->pio_sm_is_tx_fifo_empty(pio, sm);
}
static inline bool pio_sm_is_tx_fifo_full(PIO pio, uint sm)
{
static inline bool pio_sm_is_tx_fifo_full(PIO pio, uint sm) {
check_pio_param(pio);
return pio->chip->pio_sm_is_tx_fifo_full(pio, sm);
}
static inline uint pio_sm_get_tx_fifo_level(PIO pio, uint sm)
{
static inline uint pio_sm_get_tx_fifo_level(PIO pio, uint sm) {
check_pio_param(pio);
return pio->chip->pio_sm_get_tx_fifo_level(pio, sm);
}
static inline void pio_sm_drain_tx_fifo(PIO pio, uint sm)
{
static inline void pio_sm_drain_tx_fifo(PIO pio, uint sm) {
check_pio_param(pio);
return pio->chip->pio_sm_drain_tx_fifo(pio, sm);
}
static inline void pio_sm_put(PIO pio, uint sm, uint32_t data)
{
static inline void pio_sm_put(PIO pio, uint sm, uint32_t data) {
check_pio_param(pio);
pio->chip->pio_sm_put(pio, sm, data, false);
}
static inline void pio_sm_put_blocking(PIO pio, uint sm, uint32_t data)
{
static inline void pio_sm_put_blocking(PIO pio, uint sm, uint32_t data) {
check_pio_param(pio);
pio->chip->pio_sm_put(pio, sm, data, true);
}
static inline uint32_t pio_sm_get(PIO pio, uint sm)
{
static inline uint32_t pio_sm_get(PIO pio, uint sm) {
check_pio_param(pio);
return pio->chip->pio_sm_get(pio, sm, false);
}
static inline uint32_t pio_sm_get_blocking(PIO pio, uint sm)
{
static inline uint32_t pio_sm_get_blocking(PIO pio, uint sm) {
check_pio_param(pio);
return pio->chip->pio_sm_get(pio, sm, true);
}
static inline pio_sm_config pio_get_default_sm_config_for_pio(PIO pio)
{
static inline pio_sm_config pio_get_default_sm_config_for_pio(PIO pio) {
check_pio_param(pio);
return pio->chip->pio_get_default_sm_config(pio);
}
static inline pio_sm_config pio_get_default_sm_config(void)
{
static inline pio_sm_config pio_get_default_sm_config(void) {
PIO pio = pio_get_current();
return pio->chip->pio_get_default_sm_config(pio);
}
static inline void sm_config_set_out_pins(pio_sm_config *c, uint out_base, uint out_count)
{
static inline void sm_config_set_out_pins(pio_sm_config *c, uint out_base,
uint out_count) {
PIO pio = pio_get_current();
pio->chip->smc_set_out_pins(pio, c, out_base, out_count);
}
static inline void sm_config_set_set_pins(pio_sm_config *c, uint set_base, uint set_count)
{
static inline void sm_config_set_set_pins(pio_sm_config *c, uint set_base,
uint set_count) {
PIO pio = pio_get_current();
pio->chip->smc_set_set_pins(pio, c, set_base, set_count);
}
static inline void sm_config_set_in_pins(pio_sm_config *c, uint in_base)
{
static inline void sm_config_set_in_pins(pio_sm_config *c, uint in_base) {
PIO pio = pio_get_current();
pio->chip->smc_set_in_pins(pio, c, in_base);
}
static inline void sm_config_set_sideset_pins(pio_sm_config *c, uint sideset_base)
{
static inline void sm_config_set_sideset_pins(pio_sm_config *c,
uint sideset_base) {
PIO pio = pio_get_current();
pio->chip->smc_set_sideset_pins(pio, c, sideset_base);
}
static inline void sm_config_set_sideset(pio_sm_config *c, uint bit_count, bool optional, bool pindirs)
{
static inline void sm_config_set_sideset(pio_sm_config *c, uint bit_count,
bool optional, bool pindirs) {
PIO pio = pio_get_current();
pio->chip->smc_set_sideset(pio, c, bit_count, optional, pindirs);
}
static inline void sm_config_set_clkdiv_int_frac(pio_sm_config *c, uint16_t div_int, uint8_t div_frac)
{
static inline void sm_config_set_clkdiv_int_frac(pio_sm_config *c,
uint16_t div_int,
uint8_t div_frac) {
PIO pio = pio_get_current();
pio->chip->smc_set_clkdiv_int_frac(pio, c, div_int, div_frac);
}
static inline void sm_config_set_clkdiv(pio_sm_config *c, float div)
{
static inline void sm_config_set_clkdiv(pio_sm_config *c, float div) {
PIO pio = pio_get_current();
pio->chip->smc_set_clkdiv(pio, c, div);
}
static inline void sm_config_set_wrap(pio_sm_config *c, uint wrap_target, uint wrap)
{
static inline void sm_config_set_wrap(pio_sm_config *c, uint wrap_target,
uint wrap) {
PIO pio = pio_get_current();
pio->chip->smc_set_wrap(pio, c, wrap_target, wrap);
}
static inline void sm_config_set_jmp_pin(pio_sm_config *c, uint pin)
{
static inline void sm_config_set_jmp_pin(pio_sm_config *c, uint pin) {
PIO pio = pio_get_current();
pio->chip->smc_set_jmp_pin(pio, c, pin);
}
static inline void sm_config_set_in_shift(pio_sm_config *c, bool shift_right, bool autopush, uint push_threshold)
{
static inline void sm_config_set_in_shift(pio_sm_config *c, bool shift_right,
bool autopush, uint push_threshold) {
PIO pio = pio_get_current();
pio->chip->smc_set_in_shift(pio, c, shift_right, autopush, push_threshold);
}
static inline void sm_config_set_out_shift(pio_sm_config *c, bool shift_right, bool autopull, uint pull_threshold)
{
static inline void sm_config_set_out_shift(pio_sm_config *c, bool shift_right,
bool autopull, uint pull_threshold) {
PIO pio = pio_get_current();
pio->chip->smc_set_out_shift(pio, c, shift_right, autopull, pull_threshold);
}
static inline void sm_config_set_fifo_join(pio_sm_config *c, enum pio_fifo_join join)
{
static inline void sm_config_set_fifo_join(pio_sm_config *c,
enum pio_fifo_join join) {
PIO pio = pio_get_current();
pio->chip->smc_set_fifo_join(pio, c, join);
}
static inline void sm_config_set_out_special(pio_sm_config *c, bool sticky, bool has_enable_pin, uint enable_pin_index)
{
static inline void sm_config_set_out_special(pio_sm_config *c, bool sticky,
bool has_enable_pin,
uint enable_pin_index) {
PIO pio = pio_get_current();
pio->chip->smc_set_out_special(pio, c, sticky, has_enable_pin, enable_pin_index);
pio->chip->smc_set_out_special(pio, c, sticky, has_enable_pin,
enable_pin_index);
}
static inline void sm_config_set_mov_status(pio_sm_config *c, enum pio_mov_status_type status_sel, uint status_n)
{
static inline void sm_config_set_mov_status(pio_sm_config *c,
enum pio_mov_status_type status_sel,
uint status_n) {
PIO pio = pio_get_current();
pio->chip->smc_set_mov_status(pio, c, status_sel, status_n);
}
static inline void pio_gpio_init(PIO pio, uint pin)
{
static inline void pio_gpio_init(PIO pio, uint pin) {
check_pio_param(pio);
pio->chip->pio_gpio_init(pio, pin);
}
static inline uint32_t clock_get_hz(enum clock_index clk_index)
{
static inline uint32_t clock_get_hz(enum clock_index clk_index) {
PIO pio = pio_get_current();
return pio->chip->clock_get_hz(pio, clk_index);
}
static inline void gpio_init(uint gpio)
{
static inline void gpio_init(uint gpio) {
PIO pio = pio_get_current();
pio->chip->gpio_init(pio, gpio);
}
static inline void gpio_set_function(uint gpio, enum gpio_function fn)
{
static inline void gpio_set_function(uint gpio, enum gpio_function fn) {
PIO pio = pio_get_current();
pio->chip->gpio_set_function(pio, gpio, fn);
}
static inline void gpio_set_pulls(uint gpio, bool up, bool down)
{
static inline void gpio_set_pulls(uint gpio, bool up, bool down) {
PIO pio = pio_get_current();
pio->chip->gpio_set_pulls(pio, gpio, up, down);
}
static inline void gpio_set_outover(uint gpio, uint value)
{
static inline void gpio_set_outover(uint gpio, uint value) {
PIO pio = pio_get_current();
pio->chip->gpio_set_outover(pio, gpio, value);
}
static inline void gpio_set_inover(uint gpio, uint value)
{
static inline void gpio_set_inover(uint gpio, uint value) {
PIO pio = pio_get_current();
pio->chip->gpio_set_inover(pio, gpio, value);
}
static inline void gpio_set_oeover(uint gpio, uint value)
{
static inline void gpio_set_oeover(uint gpio, uint value) {
PIO pio = pio_get_current();
pio->chip->gpio_set_oeover(pio, gpio, value);
}
static inline void gpio_set_input_enabled(uint gpio, bool enabled)
{
static inline void gpio_set_input_enabled(uint gpio, bool enabled) {
PIO pio = pio_get_current();
pio->chip->gpio_set_input_enabled(pio, gpio, enabled);
}
static inline void gpio_set_drive_strength(uint gpio, enum gpio_drive_strength drive)
{
static inline void gpio_set_drive_strength(uint gpio,
enum gpio_drive_strength drive) {
PIO pio = pio_get_current();
pio->chip->gpio_set_drive_strength(pio, gpio, drive);
}
@ -862,9 +814,7 @@ static inline void gpio_disable_pulls(uint gpio) {
gpio_set_pulls(gpio, false, false);
}
static inline void stdio_init_all(void)
{
}
static inline void stdio_init_all(void) {}
void sleep_us(uint64_t us);

View file

@ -9,8 +9,8 @@
#include "pio_platform.h"
#define DECLARE_PIO_CHIP(chip) \
const PIO_CHIP_T *__ptr_ ## chip __attribute__ ((section ("piochips"))) __attribute__ ((used)) = \
&chip
#define DECLARE_PIO_CHIP(chip) \
const PIO_CHIP_T *__ptr_##chip __attribute__((section("piochips"))) \
__attribute__((used)) = &chip
#endif

View file

@ -8,16 +8,16 @@
#include <sys/ioctl.h>
#define RP1_PIO_INSTRUCTION_COUNT 32
#define RP1_PIO_SM_COUNT 4
#define RP1_PIO_GPIO_COUNT 28
#define RP1_GPIO_FUNC_PIO 7
#define RP1_PIO_INSTRUCTION_COUNT 32
#define RP1_PIO_SM_COUNT 4
#define RP1_PIO_GPIO_COUNT 28
#define RP1_GPIO_FUNC_PIO 7
#define RP1_PIO_ORIGIN_ANY ((uint16_t)(~0))
#define RP1_PIO_ORIGIN_ANY ((uint16_t)(~0))
#define RP1_PIO_DIR_TO_SM 0
#define RP1_PIO_DIR_FROM_SM 1
#define RP1_PIO_DIR_COUNT 2
#define RP1_PIO_DIR_TO_SM 0
#define RP1_PIO_DIR_FROM_SM 1
#define RP1_PIO_DIR_COUNT 2
typedef struct {
uint32_t clkdiv;
@ -125,12 +125,12 @@ struct rp1_pio_sm_set_dmactrl_args {
};
struct rp1_pio_sm_fifo_state_args {
uint16_t sm;
uint8_t tx;
uint8_t rsvd;
uint16_t level; /* OUT */
uint8_t empty; /* OUT */
uint8_t full; /* OUT */
uint16_t sm;
uint8_t tx;
uint8_t rsvd;
uint16_t level; /* OUT */
uint8_t empty; /* OUT */
uint8_t full; /* OUT */
};
struct rp1_gpio_init_args {
@ -160,25 +160,10 @@ struct rp1_pio_sm_config_xfer_args {
uint16_t buf_count;
};
struct rp1_pio_sm_config_xfer32_args {
uint16_t sm;
uint16_t dir;
uint32_t buf_size;
uint32_t buf_count;
};
struct rp1_pio_sm_xfer_data_args {
uint16_t sm;
uint16_t dir;
uint16_t data_bytes;
uint16_t rsvd;
void *data;
};
struct rp1_pio_sm_xfer_data32_args {
uint16_t sm;
uint16_t dir;
uint32_t data_bytes;
void *data;
};
@ -190,47 +175,75 @@ struct rp1_access_hw_args {
#define PIO_IOC_MAGIC 102
#define PIO_IOC_SM_CONFIG_XFER _IOW(PIO_IOC_MAGIC, 0, struct rp1_pio_sm_config_xfer_args)
#define PIO_IOC_SM_XFER_DATA _IOW(PIO_IOC_MAGIC, 1, struct rp1_pio_sm_xfer_data_args)
#define PIO_IOC_SM_XFER_DATA32 _IOW(PIO_IOC_MAGIC, 2, struct rp1_pio_sm_xfer_data32_args)
#define PIO_IOC_SM_CONFIG_XFER32 _IOW(PIO_IOC_MAGIC, 3, struct rp1_pio_sm_config_xfer32_args)
#define PIO_IOC_SM_CONFIG_XFER \
_IOW(PIO_IOC_MAGIC, 0, struct rp1_pio_sm_config_xfer_args)
#define PIO_IOC_SM_XFER_DATA \
_IOW(PIO_IOC_MAGIC, 1, struct rp1_pio_sm_xfer_data_args)
#ifdef CONFIG_COMPAT
// XXX #define PIO_IOC_SM_XFER_DATA32 _IOW(PIO_IOC_MAGIC, 2, struct
// pio_sm_xfer_data_args)
#endif
#define PIO_IOC_READ_HW _IOW(PIO_IOC_MAGIC, 8, struct rp1_access_hw_args)
#define PIO_IOC_WRITE_HW _IOW(PIO_IOC_MAGIC, 9, struct rp1_access_hw_args)
#define PIO_IOC_CAN_ADD_PROGRAM _IOW(PIO_IOC_MAGIC, 10, struct rp1_pio_add_program_args)
#define PIO_IOC_ADD_PROGRAM _IOW(PIO_IOC_MAGIC, 11, struct rp1_pio_add_program_args)
#define PIO_IOC_REMOVE_PROGRAM _IOW(PIO_IOC_MAGIC, 12, struct rp1_pio_remove_program_args)
#define PIO_IOC_CAN_ADD_PROGRAM \
_IOW(PIO_IOC_MAGIC, 10, struct rp1_pio_add_program_args)
#define PIO_IOC_ADD_PROGRAM \
_IOW(PIO_IOC_MAGIC, 11, struct rp1_pio_add_program_args)
#define PIO_IOC_REMOVE_PROGRAM \
_IOW(PIO_IOC_MAGIC, 12, struct rp1_pio_remove_program_args)
#define PIO_IOC_CLEAR_INSTR_MEM _IO(PIO_IOC_MAGIC, 13)
#define PIO_IOC_SM_CLAIM _IOW(PIO_IOC_MAGIC, 20, struct rp1_pio_sm_claim_args)
#define PIO_IOC_SM_UNCLAIM _IOW(PIO_IOC_MAGIC, 21, struct rp1_pio_sm_claim_args)
#define PIO_IOC_SM_IS_CLAIMED _IOW(PIO_IOC_MAGIC, 22, struct rp1_pio_sm_claim_args)
#define PIO_IOC_SM_IS_CLAIMED \
_IOW(PIO_IOC_MAGIC, 22, struct rp1_pio_sm_claim_args)
#define PIO_IOC_SM_INIT _IOW(PIO_IOC_MAGIC, 30, struct rp1_pio_sm_init_args)
#define PIO_IOC_SM_SET_CONFIG _IOW(PIO_IOC_MAGIC, 31, struct rp1_pio_sm_set_config_args)
#define PIO_IOC_SM_SET_CONFIG \
_IOW(PIO_IOC_MAGIC, 31, struct rp1_pio_sm_set_config_args)
#define PIO_IOC_SM_EXEC _IOW(PIO_IOC_MAGIC, 32, struct rp1_pio_sm_exec_args)
#define PIO_IOC_SM_CLEAR_FIFOS _IOW(PIO_IOC_MAGIC, 33, struct rp1_pio_sm_clear_fifos_args)
#define PIO_IOC_SM_SET_CLKDIV _IOW(PIO_IOC_MAGIC, 34, struct rp1_pio_sm_set_clkdiv_args)
#define PIO_IOC_SM_SET_PINS _IOW(PIO_IOC_MAGIC, 35, struct rp1_pio_sm_set_pins_args)
#define PIO_IOC_SM_SET_PINDIRS _IOW(PIO_IOC_MAGIC, 36, struct rp1_pio_sm_set_pindirs_args)
#define PIO_IOC_SM_SET_ENABLED _IOW(PIO_IOC_MAGIC, 37, struct rp1_pio_sm_set_enabled_args)
#define PIO_IOC_SM_RESTART _IOW(PIO_IOC_MAGIC, 38, struct rp1_pio_sm_restart_args)
#define PIO_IOC_SM_CLKDIV_RESTART _IOW(PIO_IOC_MAGIC, 39, struct rp1_pio_sm_restart_args)
#define PIO_IOC_SM_ENABLE_SYNC _IOW(PIO_IOC_MAGIC, 40, struct rp1_pio_sm_enable_sync_args)
#define PIO_IOC_SM_CLEAR_FIFOS \
_IOW(PIO_IOC_MAGIC, 33, struct rp1_pio_sm_clear_fifos_args)
#define PIO_IOC_SM_SET_CLKDIV \
_IOW(PIO_IOC_MAGIC, 34, struct rp1_pio_sm_set_clkdiv_args)
#define PIO_IOC_SM_SET_PINS \
_IOW(PIO_IOC_MAGIC, 35, struct rp1_pio_sm_set_pins_args)
#define PIO_IOC_SM_SET_PINDIRS \
_IOW(PIO_IOC_MAGIC, 36, struct rp1_pio_sm_set_pindirs_args)
#define PIO_IOC_SM_SET_ENABLED \
_IOW(PIO_IOC_MAGIC, 37, struct rp1_pio_sm_set_enabled_args)
#define PIO_IOC_SM_RESTART \
_IOW(PIO_IOC_MAGIC, 38, struct rp1_pio_sm_restart_args)
#define PIO_IOC_SM_CLKDIV_RESTART \
_IOW(PIO_IOC_MAGIC, 39, struct rp1_pio_sm_restart_args)
#define PIO_IOC_SM_ENABLE_SYNC \
_IOW(PIO_IOC_MAGIC, 40, struct rp1_pio_sm_enable_sync_args)
#define PIO_IOC_SM_PUT _IOW(PIO_IOC_MAGIC, 41, struct rp1_pio_sm_put_args)
#define PIO_IOC_SM_GET _IOWR(PIO_IOC_MAGIC, 42, struct rp1_pio_sm_get_args)
#define PIO_IOC_SM_SET_DMACTRL _IOW(PIO_IOC_MAGIC, 43, struct rp1_pio_sm_set_dmactrl_args)
#define PIO_IOC_SM_FIFO_STATE _IOW(PIO_IOC_MAGIC, 44, struct rp1_pio_sm_fifo_state_args)
#define PIO_IOC_SM_DRAIN_TX _IOW(PIO_IOC_MAGIC, 45, struct rp1_pio_sm_clear_fifos_args)
#define PIO_IOC_SM_SET_DMACTRL \
_IOW(PIO_IOC_MAGIC, 43, struct rp1_pio_sm_set_dmactrl_args)
#define PIO_IOC_SM_FIFO_STATE \
_IOW(PIO_IOC_MAGIC, 44, struct rp1_pio_sm_fifo_state_args)
#define PIO_IOC_SM_DRAIN_TX \
_IOW(PIO_IOC_MAGIC, 45, struct rp1_pio_sm_clear_fifos_args)
#define PIO_IOC_GPIO_INIT _IOW(PIO_IOC_MAGIC, 50, struct rp1_gpio_init_args)
#define PIO_IOC_GPIO_SET_FUNCTION _IOW(PIO_IOC_MAGIC, 51, struct rp1_gpio_set_function_args)
#define PIO_IOC_GPIO_SET_PULLS _IOW(PIO_IOC_MAGIC, 52, struct rp1_gpio_set_pulls_args)
#define PIO_IOC_GPIO_SET_OUTOVER _IOW(PIO_IOC_MAGIC, 53, struct rp1_gpio_set_args)
#define PIO_IOC_GPIO_SET_INOVER _IOW(PIO_IOC_MAGIC, 54, struct rp1_gpio_set_args)
#define PIO_IOC_GPIO_SET_OEOVER _IOW(PIO_IOC_MAGIC, 55, struct rp1_gpio_set_args)
#define PIO_IOC_GPIO_SET_INPUT_ENABLED _IOW(PIO_IOC_MAGIC, 56, struct rp1_gpio_set_args)
#define PIO_IOC_GPIO_SET_DRIVE_STRENGTH _IOW(PIO_IOC_MAGIC, 57, struct rp1_gpio_set_args)
#define PIO_IOC_GPIO_SET_FUNCTION \
_IOW(PIO_IOC_MAGIC, 51, struct rp1_gpio_set_function_args)
#define PIO_IOC_GPIO_SET_PULLS \
_IOW(PIO_IOC_MAGIC, 52, struct rp1_gpio_set_pulls_args)
#define PIO_IOC_GPIO_SET_OUTOVER \
_IOW(PIO_IOC_MAGIC, 53, struct rp1_gpio_set_args)
#define PIO_IOC_GPIO_SET_INOVER \
_IOW(PIO_IOC_MAGIC, 54, struct rp1_gpio_set_args)
#define PIO_IOC_GPIO_SET_OEOVER \
_IOW(PIO_IOC_MAGIC, 55, struct rp1_gpio_set_args)
#define PIO_IOC_GPIO_SET_INPUT_ENABLED \
_IOW(PIO_IOC_MAGIC, 56, struct rp1_gpio_set_args)
#define PIO_IOC_GPIO_SET_DRIVE_STRENGTH \
_IOW(PIO_IOC_MAGIC, 57, struct rp1_gpio_set_args)
#endif

File diff suppressed because it is too large Load diff

View file

@ -28,33 +28,26 @@ static PIO pio_instances[PIO_MAX_INSTANCES];
static uint num_instances;
static pthread_mutex_t pio_handle_lock;
void pio_select(PIO pio)
{
__pio = pio;
}
void pio_select(PIO pio) { __pio = pio; }
PIO pio_get_current(void)
{
PIO pio_get_current(void) {
PIO pio = __pio;
check_pio_param(pio);
return pio;
}
int pio_get_index(PIO pio)
{
int pio_get_index(PIO pio) {
int i;
for (i = 0; i < PIO_MAX_INSTANCES; i++)
{
for (i = 0; i < PIO_MAX_INSTANCES; i++) {
if (pio == pio_instances[i])
return i;
}
return -1;
}
int pio_init(void)
{
int pio_init(void) {
static bool initialised;
const PIO_CHIP_T * const *p;
const PIO_CHIP_T *const *p;
uint i = 0;
int err;
@ -62,8 +55,7 @@ int pio_init(void)
return 0;
num_instances = 0;
p = &__start_piochips;
while (p < &__stop_piochips && num_instances < PIO_MAX_INSTANCES)
{
while (p < &__stop_piochips && num_instances < PIO_MAX_INSTANCES) {
PIO_CHIP_T *chip = *p;
PIO pio = chip->create_instance(chip, i);
if (pio && !PIO_IS_ERR(pio)) {
@ -83,8 +75,7 @@ int pio_init(void)
return 0;
}
PIO pio_open(uint idx)
{
PIO pio_open(uint idx) {
PIO pio = NULL;
int err;
@ -121,8 +112,7 @@ PIO pio_open(uint idx)
return pio;
}
PIO pio_open_by_name(const char *name)
{
PIO pio_open_by_name(const char *name) {
int err = -ENOENT;
uint i;
@ -142,38 +132,33 @@ PIO pio_open_by_name(const char *name)
return pio_open(i);
}
PIO pio_open_helper(uint idx)
{
PIO pio_open_helper(uint idx) {
PIO pio = pio_instances[idx];
if (!pio || !pio->in_use) {
pio = pio_open(idx);
if (PIO_IS_ERR(pio)) {
printf("* Failed to open PIO device %d (error %d)\n",
idx, PIO_ERR_VAL(pio));
printf("* Failed to open PIO device %d (error %d)\n", idx,
PIO_ERR_VAL(pio));
exit(1);
}
}
return pio;
}
void pio_close(PIO pio)
{
void pio_close(PIO pio) {
pio->chip->close_instance(pio);
pthread_mutex_lock(&pio_handle_lock);
pio->in_use = 0;
pthread_mutex_unlock(&pio_handle_lock);
}
void pio_panic(const char *msg)
{
void pio_panic(const char *msg) {
fprintf(stderr, "PANIC: %s\n", msg);
exit(1);
}
void sleep_us(uint64_t us) {
const struct timespec tv = {
.tv_sec = (us / 1000000),
.tv_nsec = 1000ull * (us % 1000000)
};
const struct timespec tv = {.tv_sec = (us / 1000000),
.tv_nsec = 1000ull * (us % 1000000)};
nanosleep(&tv, NULL);
}

View file

@ -4,7 +4,6 @@
#include <cstdlib>
#include <cstring>
#include <ctime>
#include <map>
#include <vector>
#include "piomatter/piomatter.h"
@ -62,7 +61,7 @@ uint32_t pixels[height][width] = {
#undef w
#undef _
#define rgb(r, g, b) (((r) << 16) | ((g) << 8) | (b))
#define rgb(r, g, b) ((r << 16) | (g << 8) | b)
uint32_t colorwheel(int i) {
i = i & 0xff;
@ -96,73 +95,10 @@ static uint64_t monotonicns64() {
return tp.tv_sec * UINT64_C(1000000000) + tp.tv_nsec;
}
static void print_dither_schedule(const piomatter::schedule_sequence &ss) {
for (auto s : ss) {
for (auto i : s) {
printf("{%d %d} ", i.shift, i.active_time);
}
printf("\n");
}
printf(" -> ");
std::map<int, int> sums;
for (auto s : ss) {
for (auto i : s) {
sums[-i.shift] += i.active_time;
}
}
for (auto const &i : sums) {
printf("{%d %d} ", -i.first, i.second);
}
printf("\n");
}
static void test_simple_dither_schedule(int n_planes, int pixels_across) {
auto ss = piomatter::make_simple_schedule(n_planes, pixels_across);
print_dither_schedule(ss);
printf("\n");
}
static void test_temporal_dither_schedule(int n_planes, int pixels_across,
int n_temporal_frames) {
auto ss = piomatter::make_temporal_dither_schedule(n_planes, pixels_across,
n_temporal_frames);
print_dither_schedule(ss);
printf("\n");
}
int main(int argc, char **argv) {
int n = argc > 1 ? atoi(argv[1]) : 0;
test_simple_dither_schedule(7, 1);
test_temporal_dither_schedule(7, 1, 2);
test_temporal_dither_schedule(7, 1, 3);
test_temporal_dither_schedule(7, 1, 4);
test_temporal_dither_schedule(7, 1, 5);
return 0;
test_simple_dither_schedule(6, 1);
test_temporal_dither_schedule(6, 1, 0);
test_temporal_dither_schedule(6, 1, 2);
test_temporal_dither_schedule(6, 1, 4);
test_simple_dither_schedule(5, 16);
test_temporal_dither_schedule(5, 16, 2);
test_temporal_dither_schedule(5, 16, 3);
test_temporal_dither_schedule(5, 16, 4);
test_simple_dither_schedule(5, 24);
test_temporal_dither_schedule(5, 24, 2);
test_temporal_dither_schedule(5, 24, 4);
test_simple_dither_schedule(10, 24);
test_temporal_dither_schedule(10, 24, 8);
test_temporal_dither_schedule(5, 128, 3);
test_temporal_dither_schedule(5, 192, 3);
test_temporal_dither_schedule(5, 128, 4);
test_temporal_dither_schedule(5, 192, 4);
return 0;
piomatter::matrix_geometry geometry(128, 4, 10, 0, 64, 64, true,
piomatter::matrix_geometry geometry(128, 4, 10, 64, 64, true,
piomatter::orientation_normal);
piomatter::piomatter p(std::span(&pixels[0][0], 64 * 64), geometry);

View file

@ -1,6 +1,5 @@
#include <iostream>
#include <pybind11/pybind11.h>
#include <pybind11/stl.h>
#include <string>
#include "piomatter/piomatter.h"
@ -18,14 +17,7 @@ struct PyPiomatter {
py::buffer buffer;
std::unique_ptr<piomatter::piomatter_base> matter;
void show() {
int err = matter->show();
if (err != 0) {
errno = err;
PyErr_SetFromErrno(PyExc_OSError);
throw py::error_already_set();
}
}
void show() { matter->show(); }
double fps() const { return matter->fps; }
};
@ -41,14 +33,6 @@ make_piomatter_pc(py::buffer buffer,
const py::buffer_info info = buffer.request();
const size_t buffer_size_in_bytes = info.size * info.itemsize;
if (geometry.n_lanes * 3 > std::size(pinout::PIN_RGB)) {
throw std::runtime_error(
py::str("Geometry lane count {} exceeds the pinout with {} rgb "
"pins ({} lanes)")
.attr("format")(geometry.n_lanes, std::size(pinout::PIN_RGB),
std::size(pinout::PIN_RGB) / 3)
.template cast<std::string>());
}
if (buffer_size_in_bytes != data_size_in_bytes) {
throw std::runtime_error(
py::str("Framebuffer size must be {} bytes ({} elements of {} "
@ -70,8 +54,6 @@ enum Colorspace { RGB565, RGB888, RGB888Packed };
enum Pinout {
AdafruitMatrixBonnet,
AdafruitMatrixBonnetBGR,
Active3,
Active3BGR,
};
template <class pinout>
@ -88,10 +70,12 @@ make_piomatter_p(Colorspace c, py::buffer buffer,
case RGB888Packed:
return make_piomatter_pc<pinout, piomatter::colorspace_rgb888_packed>(
buffer, geometry);
default:
throw std::runtime_error(py::str("Invalid colorspace {!r}")
.attr("format")(c)
.template cast<std::string>());
}
throw std::runtime_error(py::str("Invalid colorspace {!r}")
.attr("format")(c)
.template cast<std::string>());
}
std::unique_ptr<PyPiomatter>
@ -104,19 +88,15 @@ make_piomatter(Colorspace c, Pinout p, py::buffer buffer,
case AdafruitMatrixBonnetBGR:
return make_piomatter_p<piomatter::adafruit_matrix_bonnet_pinout_bgr>(
c, buffer, geometry);
case Active3:
return make_piomatter_p<piomatter::active3_pinout>(c, buffer, geometry);
case Active3BGR:
return make_piomatter_p<piomatter::active3_pinout_bgr>(c, buffer,
geometry);
default:
throw std::runtime_error(py::str("Invalid pinout {!r}")
.attr("format")(p)
.template cast<std::string>());
}
throw std::runtime_error(py::str("Invalid pinout {!r}")
.attr("format")(p)
.template cast<std::string>());
}
} // namespace
PYBIND11_MODULE(_piomatter, m) {
PYBIND11_MODULE(adafruit_blinka_raspberry_pi5_piomatter, m) {
py::options options;
options.enable_enum_members_docstring();
options.enable_function_signatures();
@ -126,7 +106,18 @@ PYBIND11_MODULE(_piomatter, m) {
HUB75 matrix driver for Raspberry Pi 5 using PIO
------------------------------------------------
.. currentmodule:: adafruit_blinka_raspberry_pi5_piomatter._piomatter
.. currentmodule:: adafruit_blinka_raspberry_pi5_piomatter
.. autosummary::
:toctree: _generate
Orientation
Pinout
Colorspace
Geometry
PioMatter
AdafruitMatrixBonnetRGB888
AdafruitMatrixBonnetRGB888Packed
)pbdoc";
py::enum_<piomatter::orientation>(
@ -147,10 +138,7 @@ PYBIND11_MODULE(_piomatter, m) {
.value("AdafruitMatrixHat", Pinout::AdafruitMatrixBonnet,
"Adafruit Matrix Bonnet or Matrix Hat")
.value("AdafruitMatrixHatBGR", Pinout::AdafruitMatrixBonnetBGR,
"Adafruit Matrix Bonnet or Matrix Hat with BGR color order")
.value("Active3", Pinout::Active3, "Active-3 or compatible board")
.value("Active3BGR", Pinout::Active3BGR,
"Active-3 or compatible board with BGR color order");
"Adafruit Matrix Bonnet or Matrix Hat with BGR color order");
py::enum_<Colorspace>(
m, "Colorspace",
@ -169,35 +157,19 @@ Describe the geometry of a set of panels
The number of pixels in the shift register is automatically computed from these values.
``n_planes`` controls the color depth of the panel. This is separate from the framebuffer
layout. Decreasing ``n_planes`` can increase FPS at the cost of reduced color fidelity.
The default, 10, is the maximum value.
``n_temporal_planes`` controls temporal dithering of the panel.
0 or 1 behave the same: All `n_planes` are transmitted every time.
A higher value sets the number of planes that are only transmitted every `1/n_temporal_frames` times.
A higher setting can increase FPS at the cost of slightly increasing the variation of brightness across subsequent frames.
Settings above 4 are allowed, but generally do not give good results.
For simple panels with just 1 connector (2 color lanes), the following constructor arguments are available:
``serpentine`` controls the arrangement of multiple panels when they are stacked in rows.
If it is `True`, then each row goes in the opposite direction of the previous row.
If this is specified, ``n_lanes`` cannot be, and 2 lanes are always used.
``rotation`` controls the orientation of the panel(s). Must be one of the ``Orientation``
constants. Default is ``Orientation.Normal``.
For panels with more than 2 lanes, or using a custom pixel mapping, the following constructor arguments are available:
``n_lanes`` controls how many color lanes are used. A single 16-pin HUB75 connector has 2 color lanes.
If 2 or 3 connectors are used, then there are 4 or 6 lanes.
``map`` is a Python list of integers giving the framebuffer pixel indices for each matrix pixel.
``n_planes`` controls the color depth of the panel. This is separate from the framebuffer
layout. Decreasing ``n_planes`` can increase FPS at the cost of reduced color fidelity.
The default, 10, is the maximum value.
)pbdoc")
.def(py::init([](size_t width, size_t height, size_t n_addr_lines,
bool serpentine, piomatter::orientation rotation,
size_t n_planes, size_t n_temporal_planes) {
size_t n_planes) {
size_t n_lines = 2 << n_addr_lines;
size_t pixels_across = width * height / n_lines;
size_t odd = (width * height) % n_lines;
@ -213,51 +185,30 @@ If 2 or 3 connectors are used, then there are 4 or 6 lanes.
switch (rotation) {
case piomatter::orientation::normal:
return piomatter::matrix_geometry(
pixels_across, n_addr_lines, n_planes,
n_temporal_planes, width, height, serpentine,
piomatter::orientation_normal);
pixels_across, n_addr_lines, n_planes, width, height,
serpentine, piomatter::orientation_normal);
case piomatter::orientation::r180:
return piomatter::matrix_geometry(
pixels_across, n_addr_lines, n_planes,
n_temporal_planes, width, height, serpentine,
piomatter::orientation_r180);
pixels_across, n_addr_lines, n_planes, width, height,
serpentine, piomatter::orientation_r180);
case piomatter::orientation::ccw:
return piomatter::matrix_geometry(
pixels_across, n_addr_lines, n_planes,
n_temporal_planes, width, height, serpentine,
piomatter::orientation_ccw);
pixels_across, n_addr_lines, n_planes, width, height,
serpentine, piomatter::orientation_ccw);
case piomatter::orientation::cw:
return piomatter::matrix_geometry(
pixels_across, n_addr_lines, n_planes,
n_temporal_planes, width, height, serpentine,
piomatter::orientation_cw);
pixels_across, n_addr_lines, n_planes, width, height,
serpentine, piomatter::orientation_cw);
}
throw std::runtime_error("invalid rotation");
}),
py::arg("width"), py::arg("height"), py::arg("n_addr_lines"),
py::arg("serpentine") = true,
py::arg("rotation") = piomatter::orientation::normal,
py::arg("n_planes") = 10u, py::arg("n_temporal_planes") = 2)
.def(py::init([](size_t width, size_t height, size_t n_addr_lines,
piomatter::matrix_map map, size_t n_planes,
size_t n_temporal_planes, size_t n_lanes) {
size_t n_lines = n_lanes << n_addr_lines;
size_t pixels_across = width * height / n_lines;
for (auto el : map) {
if ((size_t)el >= width * height) {
throw std::out_of_range("Map element out of range");
}
}
return piomatter::matrix_geometry(pixels_across, n_addr_lines,
n_planes, n_temporal_planes,
width, height, map, n_lanes);
}),
py::arg("width"), py::arg("height"), py::arg("n_addr_lines"),
py::arg("map"), py::arg("n_planes") = 10u,
py::arg("n_temporal_planes") = 0u, py::arg("n_lanes") = 2)
py::arg("n_planes") = 10u)
.def_readonly("width", &piomatter::matrix_geometry::width)
.def_readonly("height", &piomatter::matrix_geometry::height);
@ -265,16 +216,16 @@ If 2 or 3 connectors are used, then there are 4 or 6 lanes.
HUB75 matrix driver for Raspberry Pi 5 using PIO
``colorspace`` controls the colorspace that will be used for data to be displayed.
It must be one of the `Colorspace` constants. Which to use depends on what data
It must be one of the ``Colorspace`` constants. Which to use depends on what data
your displaying and how it is processed before copying into the framebuffer.
``pinout`` defines which pins the panels are wired to. Different pinouts can
support different hardware breakouts and panels with different color order. The
value must be one of the `Pinout` constants.
value must be one of the ``Pinout`` constants.
``framebuffer`` a numpy array that holds pixel data in the appropriate colorspace.
``geometry`` controls the size and shape of the panel. The value must be a `Geometry`
``geometry`` controls the size and shape of the panel. The value must be a ``Geometry``
instance.
)pbdoc")
.def(py::init(&make_piomatter), py::arg("colorspace"),
@ -288,5 +239,55 @@ data is triple-buffered to prevent tearing.
)pbdoc")
.def_property_readonly("fps", &PyPiomatter::fps, R"pbdoc(
The approximate number of matrix refreshes per second.
)pbdoc");
m.def(
"AdafruitMatrixBonnetRGB565",
[](py::buffer buffer, const piomatter::matrix_geometry &geometry) {
return make_piomatter(Colorspace::RGB565,
Pinout::AdafruitMatrixBonnet, buffer,
geometry);
},
py::arg("buffer"), py::arg("geometry"),
R"pbdoc(
Construct a PioMatter object to drive panels connected to an
Adafruit Matrix Bonnet using the RGB565 memory layout (2 bytes per
pixel)
This is deprecated shorthand for `PioMatter(Colorspace.RGB565, Pinout.AdafruitMatrixBonnet, ...)`.
)pbdoc");
m.def(
"AdafruitMatrixBonnetRGB888",
[](py::buffer buffer, const piomatter::matrix_geometry &geometry) {
return make_piomatter(Colorspace::RGB888,
Pinout::AdafruitMatrixBonnet, buffer,
geometry);
},
py::arg("framebuffer"), py::arg("geometry"),
R"pbdoc(
Construct a PioMatter object to drive panels connected to an
Adafruit Matrix Bonnet using the RGB888 memory layout (4 bytes per
pixel)
This is deprecated shorthand for `PioMatter(Colorspace.RGB888, Pinout.AdafruitMatrixBonnet, ...)`.
)pbdoc")
//.doc() =
;
m.def(
"AdafruitMatrixBonnetRGB888Packed",
[](py::buffer buffer, const piomatter::matrix_geometry &geometry) {
return make_piomatter(Colorspace::RGB888Packed,
Pinout::AdafruitMatrixBonnet, buffer,
geometry);
},
py::arg("framebuffer"), py::arg("geometry"),
R"pbdoc(
Construct a PioMatter object to drive panels connected to an
Adafruit Matrix Bonnet using the RGB888 packed memory layout (3
bytes per pixel)
This is deprecated shorthand for `PioMatter(Colorspace.RGB888Packed, Pinout.AdafruitMatrixBonnet, ...)`.
)pbdoc");
}