Nano 33 BLE
This commit is contained in:
Michael Miller
2019-12-06 11:38:02 -08:00
committed by GitHub
parent 2f63405c5c
commit 31dafcddf6
6 changed files with 505 additions and 4 deletions

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@ -6,8 +6,6 @@ Arduino NeoPixel library
A library to control one wire protocol RGB and RGBW leds like APA106, SK6812, WS2811, WS2812 and WS2813 that are commonly refered to as NeoPixels and two wire protocol RGB like Lpd8806 and APA102 commonly refered to as DotStars.
Supports most Arduino platforms.
This is the most functional library for the Esp8266 as it provides solutions for all Esp8266 module types even when WiFi is used.
Please read this best practices link before connecting your NeoPixels, it will save you a lot of time and effort.
[Adafruit NeoPixel Best Practices](https://learn.adafruit.com/adafruit-neopixel-uberguide/best-practices)

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@ -275,6 +275,46 @@ NeoEsp32BitBangLc8812InvertedMethod KEYWORD1
NeoEsp32BitBangApa106InvertedMethod KEYWORD1
NeoEsp32BitBang800KbpsInvertedMethod KEYWORD1
NeoEsp32BitBang400KbpsInvertedMethod KEYWORD1
NeoNrf52xPwm0Ws2812xMethod KEYWORD1
NeoNrf52xPwm0Sk6812Method KEYWORD1
NeoNrf52xPwm0800KbpsMethod KEYWORD1
NeoNrf52xPwm0400KbpsMethod KEYWORD1
NeoNrf52xPwm0Apa106Method KEYWORD1
NeoNrf52xPwm1Ws2812xMethod KEYWORD1
NeoNrf52xPwm1Sk6812Method KEYWORD1
NeoNrf52xPwm1800KbpsMethod KEYWORD1
NeoNrf52xPwm1400KbpsMethod KEYWORD1
NeoNrf52xPwm1Apa106Method KEYWORD1
NeoNrf52xPwm2Ws2812xMethod KEYWORD1
NeoNrf52xPwm2Sk6812Method KEYWORD1
NeoNrf52xPwm2800KbpsMethod KEYWORD1
NeoNrf52xPwm2400KbpsMethod KEYWORD1
NeoNrf52xPwm2Apa106Method KEYWORD1
NeoNrf52xPwm3Ws2812xMethod KEYWORD1
NeoNrf52xPwm3Sk6812Method KEYWORD1
NeoNrf52xPwm3800KbpsMethod KEYWORD1
NeoNrf52xPwm3400KbpsMethod KEYWORD1
NeoNrf52xPwm3Apa106Method KEYWORD1
NeoNrf52xPwm0Ws2812xInvertedMethod KEYWORD1
NeoNrf52xPwm0Sk6812InvertedMethod KEYWORD1
NeoNrf52xPwm0800KbpsInvertedMethod KEYWORD1
NeoNrf52xPwm0400KbpsInvertedMethod KEYWORD1
NeoNrf52xPwm0Apa106InvertedMethod KEYWORD1
NeoNrf52xPwm1Ws2812xInvertedMethod KEYWORD1
NeoNrf52xPwm1Sk6812InvertedMethod KEYWORD1
NeoNrf52xPwm1800KbpsInvertedMethod KEYWORD1
NeoNrf52xPwm1400KbpsInvertedMethod KEYWORD1
NeoNrf52xPwm1Apa106InvertedMethod KEYWORD1
NeoNrf52xPwm2Ws2812xInvertedMethod KEYWORD1
NeoNrf52xPwm2Sk6812InvertedMethod KEYWORD1
NeoNrf52xPwm2800KbpsInvertedMethod KEYWORD1
NeoNrf52xPwm2400KbpsInvertedMethod KEYWORD1
NeoNrf52xPwm2Apa106InvertedMethod KEYWORD1
NeoNrf52xPwm3Ws2812xInvertedMethod KEYWORD1
NeoNrf52xPwm3Sk6812InvertedMethod KEYWORD1
NeoNrf52xPwm3800KbpsInvertedMethod KEYWORD1
NeoNrf52xPwm3400KbpsInvertedMethod KEYWORD1
NeoNrf52xPwm3Apa106InvertedMethod KEYWORD1
DotStarMethod KEYWORD1
DotStarSpiMethod KEYWORD1
DotStarSpi20MhzMethod KEYWORD1

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@ -3,7 +3,7 @@ version=2.5.3
author=Michael C. Miller (makuna@live.com)
maintainer=Michael C. Miller (makuna@live.com)
sentence=A library that makes controlling NeoPixels (APA106, WS2811, WS2812, WS2813 & SK6812) and DotStars (APA102, LPD8806, SK9822) easy.
paragraph=Supports most Arduino platforms, including Esp8266 and Esp32. Support for RGBW pixels. Includes seperate RgbColor, RgbwColor, HslColor, and HsbColor objects. Includes an animator class that helps create asyncronous animations. Supports Matrix layout of pixels. Includes Gamma corretion object. For Esp8266 it has three methods of sending NeoPixel data, DMA, UART, and Bit Bang. For Esp32 it has two base methods of sending NeoPixel data, i2s and RMT. For all platforms, there are two methods of sending DotStar data, hardware SPI and software SPI.
paragraph=Supports most Arduino platforms, including Esp8266, Esp32, and Nrf52. Support for RGBW pixels. Includes seperate RgbColor, RgbwColor, HslColor, and HsbColor objects. Includes an animator class that helps create asyncronous animations. Supports Matrix layout of pixels. Includes Gamma corretion object. For Esp8266 it has three methods of sending NeoPixel data, DMA, UART, and Bit Bang. For Esp32 it has two base methods of sending NeoPixel data, i2s and RMT. For all platforms, there are two methods of sending DotStar data, hardware SPI and software SPI.
category=Display
url=https://github.com/Makuna/NeoPixelBus/wiki
architectures=*

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@ -81,6 +81,10 @@ License along with NeoPixel. If not, see
#include "internal/NeoEsp32RmtMethod.h"
#include "internal/NeoEspBitBangMethod.h"
#elif defined(ARDUINO_ARCH_NRF52840) // must be before __arm__
#include "internal/NeoNrf52xMethod.h"
#elif defined(__arm__) // must be before ARDUINO_ARCH_AVR due to Teensy incorrectly having it set
#include "internal/NeoArmMethod.h"

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@ -30,7 +30,7 @@ License along with NeoPixel. If not, see
#pragma once
#if defined(__arm__)
#if defined(__arm__) && !defined(ARDUINO_ARCH_NRF52840)
template<typename T_SPEED> class NeoArmMethodBase
{

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@ -0,0 +1,459 @@
/*-------------------------------------------------------------------------
NeoPixel library helper classes for Nrf52* MCUs.
Nano 33 BLE
Written by Michael C. Miller.
I invest time and resources providing this open source code,
please support me by dontating (see https://github.com/Makuna/NeoPixelBus)
-------------------------------------------------------------------------
This file is part of the Makuna/NeoPixelBus library.
The contents of this file were taken from the Adafruit NeoPixel library
and modified only to fit within individual calling functions.
NeoPixelBus is free software: you can redistribute it and/or modify
it under the terms of the GNU Lesser General Public License as
published by the Free Software Foundation, either version 3 of
the License, or (at your option) any later version.
NeoPixelBus is distributed in the hope that it will be useful,
but WITHOUT ANY WARRANTY; without even the implied warranty of
MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
GNU Lesser General Public License for more details.
You should have received a copy of the GNU Lesser General Public
License along with NeoPixel. If not, see
<http://www.gnu.org/licenses/>.
-------------------------------------------------------------------------*/
#pragma once
#if defined(ARDUINO_ARCH_NRF52840)
const uint16_t c_dmaBytesPerPixelByte = 8 * sizeof(nrf_pwm_values_common_t); // bits * bytes to represent pulse
// for Bit* variables
// count 1 = 0.0625us, so max count (32768) is 2048us
class NeoNrf52xPwmSpeedWs2811
{
public:
const static uint32_t CountTop = 20UL; // 1.25us
const static nrf_pwm_values_common_t Bit0 = 5 | 0x8000; // ~0.3us
const static nrf_pwm_values_common_t Bit1 = 14 | 0x8000; // ~0.9us
const static nrf_pwm_values_common_t BitReset = 0x8000; // LOW
const static uint16_t CountReset = 240; // 300 us / 1.25us
const static PinStatus IdleLevel = LOW;
};
class NeoNrf52xPwmSpeedWs2812x
{
public:
const static uint32_t CountTop = 20UL; // 1.25us
const static nrf_pwm_values_common_t Bit0 = 6 | 0x8000; // ~0.4us
const static nrf_pwm_values_common_t Bit1 = 13 | 0x8000; // ~0.8us
const static nrf_pwm_values_common_t BitReset = 0x8000; // LOW
const static uint32_t CountReset = 240 ; // 300us / 1.25us pulse width
const static PinStatus IdleLevel = LOW;
};
class NeoNrf52xPwmSpeedSk6812
{
public:
const static uint32_t CountTop = 20UL; // 1.25us
const static nrf_pwm_values_common_t Bit0 = 6 | 0x8000; // ~0.4us
const static nrf_pwm_values_common_t Bit1 = 13 | 0x8000; // ~0.8us
const static nrf_pwm_values_common_t BitReset = 0x8000; // LOW
const static uint32_t CountReset = 64; // 80us / 1.25us pulse width
const static PinStatus IdleLevel = LOW;
};
class NeoNrf52xPwmSpeed800Kbps
{
public:
const static uint32_t CountTop = 20UL; // 1.25us
const static nrf_pwm_values_common_t Bit0 = 6 | 0x8000; // ~0.4us
const static nrf_pwm_values_common_t Bit1 = 13 | 0x8000; // ~0.8us
const static nrf_pwm_values_common_t BitReset = 0x8000; // LOW
const static uint32_t CountReset = 40; // 50us / 1.25us pulse width
const static PinStatus IdleLevel = LOW;
};
class NeoNrf52xPwmSpeed400Kbps
{
public:
const static uint32_t CountTop = 40UL; // 2.5us
const static nrf_pwm_values_common_t Bit0 = 13 | 0x8000; // ~0.8us
const static nrf_pwm_values_common_t Bit1 = 26 | 0x8000; // ~1.6us
const static nrf_pwm_values_common_t BitReset = 0x8000; // LOW
const static uint16_t CountReset = 20; // 50 us / 2.5us
const static PinStatus IdleLevel = LOW;
};
class NeoNrf52xPwmSpeedApa106
{
public:
const static uint32_t CountTop = 26UL; // 1.65us
const static nrf_pwm_values_common_t Bit0 = 6 | 0x8000; // ~0.4us
const static nrf_pwm_values_common_t Bit1 = 20 | 0x8000; // ~1.25us
const static nrf_pwm_values_common_t BitReset = 0x8000; // LOW
const static uint32_t CountReset = 40; // 50us / 1.25us pulse width
const static PinStatus IdleLevel = LOW;
};
class NeoNrf52xPwmInvertedSpeedWs2811
{
public:
const static uint32_t CountTop = 20UL; // 1.25us
const static nrf_pwm_values_common_t Bit0 = 5; // ~0.3us
const static nrf_pwm_values_common_t Bit1 = 14; // ~0.9us
const static nrf_pwm_values_common_t BitReset = 0x0000; // HIGH
const static uint16_t CountReset = 240; // 300 us / 1.25us
const static PinStatus IdleLevel = HIGH;
};
class NeoNrf52xPwmInvertedSpeedWs2812x
{
public:
const static uint32_t CountTop = 20UL; // 1.25us
const static nrf_pwm_values_common_t Bit0 = 6; // ~0.4us
const static nrf_pwm_values_common_t Bit1 = 13; // ~0.8us
const static nrf_pwm_values_common_t BitReset = 0x0000; // HIGH
const static uint32_t CountReset = 240; // 300us / 1.25us pulse width
const static PinStatus IdleLevel = HIGH;
};
class NeoNrf52xPwmInvertedSpeedSk6812
{
public:
const static uint32_t CountTop = 20UL; // 1.25us
const static nrf_pwm_values_common_t Bit0 = 6; // ~0.4us
const static nrf_pwm_values_common_t Bit1 = 13; // ~0.8us
const static nrf_pwm_values_common_t BitReset = 0x0000; // HIGH
const static uint32_t CountReset = 64; // 80us / 1.25us pulse width
const static PinStatus IdleLevel = HIGH;
};
class NeoNrf52xPwmInvertedSpeed800Kbps
{
public:
const static uint32_t CountTop = 20UL; // 1.25us
const static nrf_pwm_values_common_t Bit0 = 6; // ~0.4us
const static nrf_pwm_values_common_t Bit1 = 13; // ~0.8us
const static nrf_pwm_values_common_t BitReset = 0x0000; // HIGH
const static uint32_t CountReset = 40; // 50us / 1.25us pulse width
const static PinStatus IdleLevel = HIGH;
};
class NeoNrf52xPwmInvertedSpeed400Kbps
{
public:
const static uint32_t CountTop = 40UL; // 2.5us
const static nrf_pwm_values_common_t Bit0 = 13; // ~0.8us
const static nrf_pwm_values_common_t Bit1 = 26; // ~1.6us
const static nrf_pwm_values_common_t BitReset = 0x0000; // HIGH
const static uint16_t CountReset = 20; // 50 us / 2.5us
const static PinStatus IdleLevel = HIGH;
};
class NeoNrf52xPwmInvertedSpeedApa106
{
public:
const static uint32_t CountTop = 26UL; // 1.65us
const static nrf_pwm_values_common_t Bit0 = 6; // ~0.4us
const static nrf_pwm_values_common_t Bit1 = 20; // ~1.25us
const static nrf_pwm_values_common_t BitReset = 0x0000; // HIGH
const static uint32_t CountReset = 40; // 50us / 1.25us pulse width
const static PinStatus IdleLevel = HIGH;
};
class NeoNrf52xPwm0
{
public:
inline static NRF_PWM_Type* Pwm()
{
return NRF_PWM0;
}
};
class NeoNrf52xPwm1
{
public:
inline static NRF_PWM_Type* Pwm()
{
return NRF_PWM1;
}
};
class NeoNrf52xPwm2
{
public:
inline static NRF_PWM_Type* Pwm()
{
return NRF_PWM2;
}
};
#if defined(NRF_PWM3)
class NeoNrf52xPwm3
{
public:
inline static NRF_PWM_Type* Pwm()
{
return NRF_PWM3;
}
};
#endif
template<typename T_SPEED, typename T_BUS> class NeoNrf52xMethodBase
{
public:
NeoNrf52xMethodBase(uint8_t pin, uint16_t pixelCount, size_t elementSize) :
_pin(pin)
{
pinMode(pin, OUTPUT);
_pixelsSize = pixelCount * elementSize;
_pixels = static_cast<uint8_t*>(malloc(_pixelsSize));
memset(_pixels, 0, _pixelsSize);
_dmaBufferSize = c_dmaBytesPerPixelByte * _pixelsSize + sizeof(nrf_pwm_values_common_t);
_dmaBuffer = static_cast<nrf_pwm_values_common_t*>(malloc(_dmaBufferSize));
}
~NeoNrf52xMethodBase()
{
while (!IsReadyToUpdate())
{
yield();
}
dmaDeinit();
pinMode(_pin, INPUT);
free(_pixels);
free(_dmaBuffer);
}
bool IsReadyToUpdate() const
{
return (T_BUS::Pwm()->EVENTS_STOPPED);
}
void Initialize()
{
digitalWrite(_pin, T_SPEED::IdleLevel);
dmaInit();
// must force a first update so the EVENTS_SEQEND gets set as
// you can't set it manually
FillBuffer();
dmaStart();
}
void Update(bool)
{
// Data latch = 50+ microsecond pause in the output stream. Rather than
// put a delay at the end of the function, the ending time is noted and
// the function will simply hold off (if needed) on issuing the
// subsequent round of data until the latch time has elapsed. This
// allows the mainline code to start generating the next frame of data
// rather than stalling for the latch.
while (!IsReadyToUpdate())
{
yield(); // allows for system yield if needed
}
FillBuffer();
dmaStart();
}
uint8_t* getPixels() const
{
return _pixels;
};
size_t getPixelsSize() const
{
return _pixelsSize;
};
private:
const uint8_t _pin; // output pin number
size_t _pixelsSize; // Size of '_pixels' buffer below
uint8_t* _pixels; // Holds LED color values
size_t _dmaBufferSize; // total size of _dmaBuffer
nrf_pwm_values_common_t* _dmaBuffer; // Holds pixel data in native format for PWM hardware
void dmaInit()
{
// only use channel zero
T_BUS::Pwm()->PSEL.OUT[0] = digitalPinToPinName(_pin);
T_BUS::Pwm()->PSEL.OUT[1] = NC;
T_BUS::Pwm()->PSEL.OUT[2] = NC;
T_BUS::Pwm()->PSEL.OUT[3] = NC;
T_BUS::Pwm()->ENABLE = 1;
T_BUS::Pwm()->MODE = NRF_PWM_MODE_UP;
T_BUS::Pwm()->PRESCALER = NRF_PWM_CLK_16MHz;
T_BUS::Pwm()->COUNTERTOP = T_SPEED::CountTop;
T_BUS::Pwm()->LOOP = 1; // single fire so events get set
T_BUS::Pwm()->DECODER = NRF_PWM_LOAD_COMMON;
// sequence zero is the primary data with a BitReset entry on the end for
// the delay repeating
T_BUS::Pwm()->SEQ[0].PTR = reinterpret_cast<uint32_t>(_dmaBuffer);
T_BUS::Pwm()->SEQ[0].CNT = _dmaBufferSize / sizeof(nrf_pwm_values_common_t);
T_BUS::Pwm()->SEQ[0].REFRESH = 0; // ignored
T_BUS::Pwm()->SEQ[0].ENDDELAY = T_SPEED::CountReset; // ignored still?
// sequence one is pointing to the BitReset entry at the end of the primary data
T_BUS::Pwm()->SEQ[1].PTR = reinterpret_cast<uint32_t>(_dmaBuffer + (T_BUS::Pwm()->SEQ[0].CNT - 1));
T_BUS::Pwm()->SEQ[1].CNT = 1;
T_BUS::Pwm()->SEQ[1].REFRESH = 0; // ignored
T_BUS::Pwm()->SEQ[1].ENDDELAY = 0; // ignored
// stop when the look finishes
T_BUS::Pwm()->SHORTS = PWM_SHORTS_LOOPSDONE_STOP_Msk;
T_BUS::Pwm()->INTEN = 0;
dmaResetEvents();
}
void dmaDeinit()
{
T_BUS::Pwm()->ENABLE = 0;
T_BUS::Pwm()->PSEL.OUT[0] = NC;
}
void FillBuffer()
{
nrf_pwm_values_common_t* pDma = _dmaBuffer;
nrf_pwm_values_common_t* pDmaEnd = _dmaBuffer + (_dmaBufferSize / sizeof(nrf_pwm_values_common_t));
uint8_t* pPixelsEnd = _pixels + _pixelsSize;
for (uint8_t* pPixel = _pixels; pPixel < pPixelsEnd; pPixel++)
{
uint8_t data = *pPixel;
for (uint8_t bit = 0; bit < 8; bit++)
{
*(pDma++) = (data & 0x80) ? T_SPEED::Bit1 : T_SPEED::Bit0;
data <<= 1;
}
}
// fill the rest with BitReset as it will get repeated when delaying or
// at the end before being stopped
while (pDma < pDmaEnd)
{
*(pDma++) = T_SPEED::BitReset;
}
}
void dmaResetEvents()
{
T_BUS::Pwm()->EVENTS_LOOPSDONE = 0;
T_BUS::Pwm()->EVENTS_SEQEND[0] = 0;
T_BUS::Pwm()->EVENTS_SEQEND[1] = 0;
T_BUS::Pwm()->EVENTS_STOPPED = 0;
}
void dmaStart()
{
dmaResetEvents();
T_BUS::Pwm()->TASKS_SEQSTART[0] = 1;
}
};
// normal
typedef NeoNrf52xMethodBase<NeoNrf52xPwmSpeedWs2811, NeoNrf52xPwm0> NeoNrf52xPwm0Ws2811Method;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmSpeedWs2812x, NeoNrf52xPwm0> NeoNrf52xPwm0Ws2812xMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmSpeedSk6812, NeoNrf52xPwm0> NeoNrf52xPwm0Sk6812Method;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmSpeedApa106, NeoNrf52xPwm0> NeoNrf52xPwm0Apa106Method;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmSpeed800Kbps, NeoNrf52xPwm0> NeoNrf52xPwm0800KbpsMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmSpeed400Kbps, NeoNrf52xPwm0> NeoNrf52xPwm0400KbpsMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmSpeedWs2811, NeoNrf52xPwm1> NeoNrf52xPwm1Ws2811Method;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmSpeedWs2812x, NeoNrf52xPwm1> NeoNrf52xPwm1Ws2812xMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmSpeedSk6812, NeoNrf52xPwm1> NeoNrf52xPwm1Sk6812Method;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmSpeedApa106, NeoNrf52xPwm1> NeoNrf52xPwm1Apa106Method;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmSpeed800Kbps, NeoNrf52xPwm1> NeoNrf52xPwm1800KbpsMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmSpeed400Kbps, NeoNrf52xPwm1> NeoNrf52xPwm1400KbpsMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmSpeedWs2811, NeoNrf52xPwm2> NeoNrf52xPwm2Ws2811Method;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmSpeedWs2812x, NeoNrf52xPwm2> NeoNrf52xPwm2Ws2812xMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmSpeedSk6812, NeoNrf52xPwm2> NeoNrf52xPwm2Sk6812Method;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmSpeedApa106, NeoNrf52xPwm2> NeoNrf52xPwm2Apa106Method;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmSpeed800Kbps, NeoNrf52xPwm2> NeoNrf52xPwm2800KbpsMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmSpeed400Kbps, NeoNrf52xPwm2> NeoNrf52xPwm2400KbpsMethod;
#if defined(NRF_PWM3)
typedef NeoNrf52xMethodBase<NeoNrf52xPwmSpeedWs2811, NeoNrf52xPwm3> NeoNrf52xPwm3Ws2811Method;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmSpeedWs2812x, NeoNrf52xPwm3> NeoNrf52xPwm3Ws2812xMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmSpeedSk6812, NeoNrf52xPwm3> NeoNrf52xPwm3Sk6812Method;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmSpeedApa106, NeoNrf52xPwm3> NeoNrf52xPwm3Apa106Method;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmSpeed800Kbps, NeoNrf52xPwm3> NeoNrf52xPwm3800KbpsMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmSpeed400Kbps, NeoNrf52xPwm3> NeoNrf52xPwm3400KbpsMethod;
#endif
// inverted
typedef NeoNrf52xMethodBase<NeoNrf52xPwmInvertedSpeedWs2811, NeoNrf52xPwm0> NeoNrf52xPwm0Ws2811InvertedMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmInvertedSpeedWs2812x, NeoNrf52xPwm0> NeoNrf52xPwm0Ws2812xInvertedMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmInvertedSpeedSk6812, NeoNrf52xPwm0> NeoNrf52xPwm0Sk6812InvertedMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmInvertedSpeedApa106, NeoNrf52xPwm0> NeoNrf52xPwm0Apa106InvertedMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmInvertedSpeed800Kbps, NeoNrf52xPwm0> NeoNrf52xPwm0800KbpsInvertedMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmInvertedSpeed400Kbps, NeoNrf52xPwm0> NeoNrf52xPwm0400KbpsInvertedMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmInvertedSpeedWs2811, NeoNrf52xPwm1> NeoNrf52xPwm1Ws2811InvertedMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmInvertedSpeedWs2812x, NeoNrf52xPwm1> NeoNrf52xPwm1Ws2812xInvertedMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmInvertedSpeedSk6812, NeoNrf52xPwm1> NeoNrf52xPwm1Sk6812InvertedMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmInvertedSpeedApa106, NeoNrf52xPwm1> NeoNrf52xPwm1Apa106InvertedMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmInvertedSpeed800Kbps, NeoNrf52xPwm1> NeoNrf52xPwm1800KbpsInvertedMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmInvertedSpeed400Kbps, NeoNrf52xPwm1> NeoNrf52xPwm1400KbpsInvertedMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmInvertedSpeedWs2811, NeoNrf52xPwm2> NeoNrf52xPwm2Ws2811InvertedMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmInvertedSpeedWs2812x, NeoNrf52xPwm2> NeoNrf52xPwm2Ws2812xInvertedMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmInvertedSpeedSk6812, NeoNrf52xPwm2> NeoNrf52xPwm2Sk6812InvertedMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmInvertedSpeedApa106, NeoNrf52xPwm2> NeoNrf52xPwm2Apa106InvertedMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmInvertedSpeed800Kbps, NeoNrf52xPwm2> NeoNrf52xPwm2800KbpsInvertedMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmInvertedSpeed400Kbps, NeoNrf52xPwm2> NeoNrf52xPwm2400KbpsInvertedMethod;
#if defined(NRF_PWM3)
typedef NeoNrf52xMethodBase<NeoNrf52xPwmInvertedSpeedWs2811, NeoNrf52xPwm3> NeoNrf52xPwm3Ws2811InvertedMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmInvertedSpeedWs2812x, NeoNrf52xPwm3> NeoNrf52xPwm3Ws2812xInvertedMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmInvertedSpeedSk6812, NeoNrf52xPwm3> NeoNrf52xPwm3Sk6812InvertedMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmInvertedSpeedApa106, NeoNrf52xPwm3> NeoNrf52xPwm3Apa106InvertedMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmInvertedSpeed800Kbps, NeoNrf52xPwm3> NeoNrf52xPwm3800KbpsInvertedMethod;
typedef NeoNrf52xMethodBase<NeoNrf52xPwmInvertedSpeed400Kbps, NeoNrf52xPwm3> NeoNrf52xPwm3400KbpsInvertedMethod;
#endif
// defaults
typedef NeoNrf52xPwm2Ws2812xMethod NeoWs2813Method;
typedef NeoNrf52xPwm2Ws2812xMethod NeoWs2812xMethod;
typedef NeoNrf52xPwm2800KbpsMethod NeoWs2812Method;
typedef NeoNrf52xPwm2Ws2812xMethod NeoWs2811Method;
typedef NeoNrf52xPwm2Sk6812Method NeoSk6812Method;
typedef NeoNrf52xPwm2Sk6812Method NeoLc8812Method;
typedef NeoNrf52xPwm2Apa106Method NeoApa106Method;
typedef NeoNrf52xPwm2Ws2812xMethod Neo800KbpsMethod;
typedef NeoNrf52xPwm2400KbpsMethod Neo400KbpsMethod;
typedef NeoNrf52xPwm2Ws2812xInvertedMethod NeoWs2813InvertedMethod;
typedef NeoNrf52xPwm2Ws2812xInvertedMethod NeoWs2812xInvertedMethod;
typedef NeoNrf52xPwm2Ws2812xInvertedMethod NeoWs2811InvertedMethod;
typedef NeoNrf52xPwm2800KbpsInvertedMethod NeoWs2812InvertedMethod;
typedef NeoNrf52xPwm2Sk6812InvertedMethod NeoSk6812InvertedMethod;
typedef NeoNrf52xPwm2Sk6812InvertedMethod NeoLc8812InvertedMethod;
typedef NeoNrf52xPwm2Apa106InvertedMethod NeoApa106InvertedMethod;
typedef NeoNrf52xPwm2Ws2812xInvertedMethod Neo800KbpsInvertedMethod;
typedef NeoNrf52xPwm2400KbpsInvertedMethod Neo400KbpsInvertedMethod;
#endif