App-MHFS

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share/public_html/static/hls.js  view on Meta::CPAN

  // THIS MEANS THAT \x50 MUST BE ADDED TO THE VALUES
  0x80: 0xae, // Registered symbol (R)
  0x81: 0xb0, // degree sign
  0x82: 0xbd, // 1/2 symbol
  0x83: 0xbf, // Inverted (open) question mark
  0x84: 0x2122, // Trademark symbol (TM)
  0x85: 0xa2, // Cents symbol
  0x86: 0xa3, // Pounds sterling
  0x87: 0x266a, // Music 8'th note
  0x88: 0xe0, // lowercase a, grave accent
  0x89: 0x20, // transparent space (regular)
  0x8a: 0xe8, // lowercase e, grave accent
  0x8b: 0xe2, // lowercase a, circumflex accent
  0x8c: 0xea, // lowercase e, circumflex accent
  0x8d: 0xee, // lowercase i, circumflex accent
  0x8e: 0xf4, // lowercase o, circumflex accent
  0x8f: 0xfb, // lowercase u, circumflex accent
  // THIS BLOCK INCLUDES THE 32 EXTENDED (TWO-BYTE) LINE 21 CHARACTERS
  // THAT COME FROM HI BYTE=0x12 AND LOW BETWEEN 0x20 AND 0x3F
  0x90: 0xc1, // capital letter A with acute
  0x91: 0xc9, // capital letter E with acute

share/public_html/static/hls.js  view on Meta::CPAN

};

var NR_ROWS = 15,
    NR_COLS = 100;
// Tables to look up row from PAC data
var rowsLowCh1 = { 0x11: 1, 0x12: 3, 0x15: 5, 0x16: 7, 0x17: 9, 0x10: 11, 0x13: 12, 0x14: 14 };
var rowsHighCh1 = { 0x11: 2, 0x12: 4, 0x15: 6, 0x16: 8, 0x17: 10, 0x13: 13, 0x14: 15 };
var rowsLowCh2 = { 0x19: 1, 0x1A: 3, 0x1D: 5, 0x1E: 7, 0x1F: 9, 0x18: 11, 0x1B: 12, 0x1C: 14 };
var rowsHighCh2 = { 0x19: 2, 0x1A: 4, 0x1D: 6, 0x1E: 8, 0x1F: 10, 0x1B: 13, 0x1C: 15 };

var backgroundColors = ['white', 'green', 'blue', 'cyan', 'red', 'yellow', 'magenta', 'black', 'transparent'];

/**
 * Simple logger class to be able to write with time-stamps and filter on level.
 */
var cea_608_parser_logger = {
  verboseFilter: { 'DATA': 3, 'DEBUG': 3, 'INFO': 2, 'WARNING': 2, 'TEXT': 1, 'ERROR': 0 },
  time: null,
  verboseLevel: 0, // Only write errors
  setTime: function setTime(newTime) {
    this.time = newTime;

share/public_html/static/hls.js  view on Meta::CPAN

    }

    bkgData = {};
    if (a === 0x10 || a === 0x18) {
      index = Math.floor((b - 0x20) / 2);
      bkgData.background = backgroundColors[index];
      if (b % 2 === 1) {
        bkgData.background = bkgData.background + '_semi';
      }
    } else if (b === 0x2d) {
      bkgData.background = 'transparent';
    } else {
      bkgData.foreground = 'black';
      if (b === 0x2f) {
        bkgData.underline = true;
      }
    }
    chNr = a < 0x18 ? 1 : 2;
    channel = this.channels[chNr - 1];
    channel.setBkgData(bkgData);
    this.lastCmdA = null;

share/public_html/static/music_inc/src/dr_flac.h  view on Meta::CPAN

    ```c
    drflac* pFlac = drflac_open_file("MySong.flac", NULL);
    if (pFlac == NULL) {
        // Failed to open FLAC file
    }

    drflac_int32* pSamples = malloc(pFlac->totalPCMFrameCount * pFlac->channels * sizeof(drflac_int32));
    drflac_uint64 numberOfInterleavedSamplesActuallyRead = drflac_read_pcm_frames_s32(pFlac, pFlac->totalPCMFrameCount, pSamples);
    ```

The drflac object represents the decoder. It is a transparent type so all the information you need, such as the number of channels and the bits per sample,
should be directly accessible - just make sure you don't change their values. Samples are always output as interleaved signed 32-bit PCM. In the example above
a native FLAC stream was opened, however dr_flac has seamless support for Ogg encapsulated FLAC streams as well.

You do not need to decode the entire stream in one go - you just specify how many samples you'd like at any given time and the decoder will give you as many
samples as it can, up to the amount requested. Later on when you need the next batch of samples, just call it again. Example:

    ```c
    while (drflac_read_pcm_frames_s32(pFlac, chunkSizeInPCMFrames, pChunkSamples) > 0) {
        do_something();
    }

share/public_html/static/music_inc/src/miniaudio.h  view on Meta::CPAN

The `config.playback.channels` member sets the number of channels to use with the device. The channel count cannot exceed MA_MAX_CHANNELS. The
`config.sampleRate` member sets the sample rate (which must be the same for both playback and capture in full-duplex configurations). This is usually set to
44100 or 48000, but can be set to anything. It's recommended to keep this between 8000 and 384000, however.

Note that leaving the format, channel count and/or sample rate at their default values will result in the internal device's native configuration being used
which is useful if you want to avoid the overhead of miniaudio's automatic data conversion.

In addition to the sample format, channel count and sample rate, the data callback and user data pointer are also set via the config. The user data pointer is
not passed into the callback as a parameter, but is instead set to the `pUserData` member of `ma_device` which you can access directly since all miniaudio
structures are transparent.

Initializing the device is done with `ma_device_init()`. This will return a result code telling you what went wrong, if anything. On success it will return
`MA_SUCCESS`. After initialization is complete the device will be in a stopped state. To start it, use `ma_device_start()`. Uninitializing the device will stop
it, which is what the example above does, but you can also stop the device with `ma_device_stop()`. To resume the device simply call `ma_device_start()` again.
Note that it's important to never stop or start the device from inside the callback. This will result in a deadlock. Instead you set a variable or signal an
event indicating that the device needs to stop and handle it in a different thread. The following APIs must never be called inside the callback:

    ```c
    ma_device_init()
    ma_device_init_ex()

share/public_html/static/music_worklet_inprogress/decoder/deps/dr_libs/dr_flac.h  view on Meta::CPAN

    ```c
    drflac* pFlac = drflac_open_file("MySong.flac", NULL);
    if (pFlac == NULL) {
        // Failed to open FLAC file
    }

    drflac_int32* pSamples = malloc(pFlac->totalPCMFrameCount * pFlac->channels * sizeof(drflac_int32));
    drflac_uint64 numberOfInterleavedSamplesActuallyRead = drflac_read_pcm_frames_s32(pFlac, pFlac->totalPCMFrameCount, pSamples);
    ```

The drflac object represents the decoder. It is a transparent type so all the information you need, such as the number of channels and the bits per sample,
should be directly accessible - just make sure you don't change their values. Samples are always output as interleaved signed 32-bit PCM. In the example above
a native FLAC stream was opened, however dr_flac has seamless support for Ogg encapsulated FLAC streams as well.

You do not need to decode the entire stream in one go - you just specify how many samples you'd like at any given time and the decoder will give you as many
samples as it can, up to the amount requested. Later on when you need the next batch of samples, just call it again. Example:

    ```c
    while (drflac_read_pcm_frames_s32(pFlac, chunkSizeInPCMFrames, pChunkSamples) > 0) {
        do_something();
    }

share/public_html/static/music_worklet_inprogress/decoder/deps/miniaudio/miniaudio.h  view on Meta::CPAN

    #define MINIAUDIO_IMPLEMENTATION
    #include "miniaudio.h"
    ```

You can do `#include "miniaudio.h"` in other parts of the program just like any other header.

miniaudio includes both low level and high level APIs. The low level API is good for those who want
to do all of their mixing themselves and only require a light weight interface to the underlying
audio device. The high level API is good for those who have complex mixing and effect requirements.

In miniaudio, objects are transparent structures. Unlike many other libraries, there are no handles
to opaque objects which means you need to allocate memory for objects yourself. In the examples
presented in this documentation you will often see objects declared on the stack. You need to be
careful when translating these examples to your own code so that you don't accidentally declare
your objects on the stack and then cause them to become invalid once the function returns. In
addition, you must ensure the memory address of your objects remain the same throughout their
lifetime. You therefore cannot be making copies of your objects.

A config/init pattern is used throughout the entire library. The idea is that you set up a config
object and pass that into the initialization routine. The advantage to this system is that the
config object can be initialized with logical defaults and new properties added to it without

share/public_html/static/music_worklet_inprogress/decoder/deps/miniaudio/miniaudio.h  view on Meta::CPAN

usually set to 44100 or 48000, but can be set to anything. It's recommended to keep this between
8000 and 384000, however.

Note that leaving the format, channel count and/or sample rate at their default values will result
in the internal device's native configuration being used which is useful if you want to avoid the
overhead of miniaudio's automatic data conversion.

In addition to the sample format, channel count and sample rate, the data callback and user data
pointer are also set via the config. The user data pointer is not passed into the callback as a
parameter, but is instead set to the `pUserData` member of `ma_device` which you can access
directly since all miniaudio structures are transparent.

Initializing the device is done with `ma_device_init()`. This will return a result code telling you
what went wrong, if anything. On success it will return `MA_SUCCESS`. After initialization is
complete the device will be in a stopped state. To start it, use `ma_device_start()`.
Uninitializing the device will stop it, which is what the example above does, but you can also stop
the device with `ma_device_stop()`. To resume the device simply call `ma_device_start()` again.
Note that it's important to never stop or start the device from inside the callback. This will
result in a deadlock. Instead you set a variable or signal an event indicating that the device
needs to stop and handle it in a different thread. The following APIs must never be called inside
the callback:

share/public_html/static/music_worklet_inprogress/decoder/deps/miniaudio/miniaudio.h  view on Meta::CPAN

    }
    ```

This creates an engine instance which will initialize a device internally which you can access with
`ma_engine_get_device()`. It will also initialize a resource manager for you which can be accessed
with `ma_engine_get_resource_manager()`. The engine itself is a node graph (`ma_node_graph`) which
means you can pass a pointer to the engine object into any of the `ma_node_graph` APIs (with a
cast). Alternatively, you can use `ma_engine_get_node_graph()` instead of a cast.

Note that all objects in miniaudio, including the `ma_engine` object in the example above, are
transparent structures. There are no handles to opaque structures in miniaudio which means you need
to be mindful of how you declare them. In the example above we are declaring it on the stack, but
this will result in the struct being invalidated once the function encapsulating it returns. If
allocating the engine on the heap is more appropriate, you can easily do so with a standard call
to `malloc()` or whatever heap allocation routine you like:

    ```c
    ma_engine* pEngine = malloc(sizeof(*pEngine));
    ```

The `ma_engine` API uses the same config/init pattern used all throughout miniaudio. To configure