AZID For PC

The current version of the AZID decoder tool was written in Java.
JVM Version:
The Java version used is 1.7.0_79.
Software architecture:
The decoder tool is divided into:
￭ main application (a java program)
￭ web application (a Java applet)
￭ script decoder
￭ network communication
￭ database handling
￭ frame analysis
￭…

… applying movement and camera filters to an image
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Now we will discuss how to get the best out of image processing
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Some common tasks with image processing
1. Adjust image contrast
2. Adjust image brightness
3. Calculate image area/perimeter
4. Cut image into equal parts
5. Calculate the number of dimentions of an image
6. Reduce image resolution
7. Cropping and rotation
8. Noise reduction
9. Edge enhancement
10. Removing image marks
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Image processing consists of a series of tasks, which can be done one after another. These tasks usually
are divided into the following steps.
1) Read data from image file
2) Calculate image area
3) Calculate image dimensions
4) Transform image to desired size
5) Adjust image contrast
6) Remove color-coding
7) Threshold image to create binary image
8) Find edges/boundaries
9) Calculate image depth
10) Calculate image histogram
11) Calculate gradients
12) Calculate image mean
13) Find lines in image
14) Calculate binary image
15) Detect significant image parts
16) Do some post-processing
1. Read data from image file
To open a specific image, simply open an image file.
Image processing tools are used to analyze and manipulate the captured images.
Image format is one of the basic types of image file. A file in image format has the extension
.jpg,.jpeg,.png,.bmp, etc. For this tutorial we will use the
.png format.
2. Calculate image area
The area of a two-dimensional image is called ‘area’. In an image with the extension
.png, the area of the image is measured in pixels. The image area is a property of an
image, which can be calculated in the following way:
Image

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AZID is a Java tool that reads the AC3 bitstream from a file and encodes/decodes the audio.
The current version is based on the A/52 spec.
It has been written in Java to be easy to port to other platforms.
AZID is open source, released under GPL v2.
Download:

News:
– February 2006: AZID version 1.0.5 is released
– October 2006: AZID version 1.0.7 is released
– January 2007: AZID version 1.1.0 is released
– January 2008: AZID version 1.1.3 is released
AZID architecture:
AZID uses the AC3Bits class to read the compressed audio data from disk.
The audio input is buffered in a byte array. The bits are read in from disk and the audio is decoded and written into the byte array.
The audio input is decoded using fixed length block processing. At first the bits are read from the AC3Bits class and written into a local buffer. Then the fixed length block decoder reads the bits from the buffer and writes them into the audio stream.
AZID is a multi-threaded application and can be used with multithreaded applications.
AZID can read several A52 bitstreams from disk at once and decode them simultaneously.
AZID can produce an AC3 bitstream from a list of source samples. If the output buffer is full the data is written to disk.
AZID can also produce an AC3 bitstream from a sound file.
AZID features:
– in-memory decoder
– fully self contained, no external libraries required
– multithreading support
– can read from disk or from a sound file
– AC3 fixed length block decoding
– list file output (ASCII data to file)
– single file output (AC3 data to file)
– GUI for overview, test and data generation
– GUI for BSI editing
– GUI for AC3 manipulation
– GUI for AC3 Decoder control
– output formatting wizard
– PCM/AC3 playback and data export
– AC3 bitstreams from file lists
– PCM playback for data export
– GUI for BSI editing and AC3 manipulation
– GUI for BSI data export (BRI

The decoding of one audio block is basically a very simple operation. It basically consists of
the following steps:
￭ Compare the bitstream to the current BSI
￭ Decode the data of the 6 audio blocks
￭ If decoded data = data in BSI, stop decoding. If data is wrong, correct it in BSI and decode another block
￭ If decoded data = data in BSI, stop decoding. If data is wrong, correct it in BSI and decode another block

￭ Decode the data in the 6 audio blocks

The BSI comparison itself is not very complicated. The only thing that needs to be considered is that data are often changed during the encoding process, so the decoder must either save the current BSI and check it against the actual decoded data or keep track of the decoded data to be compared with the BSI.
￭ Bitstream start bit
￭ Bitstream synchronisation pattern (BTSP)
￭ Audio frames
￭ List of all the channels which were encoded (not all are needed at decoding time, but this array is provided for those)
￭ Audio sampling parameters (MSB, LSB, resample rate, resample offset)

The comparison itself is done in a special loop, which looks for blocks containing the audio data, and compares the decoded data to the BSI.
￭ Compare the bitstream to the current BSI
￭ If blocks containing audio data are found, count them and check their size
￭ If a block contains audio data, decode it
￭ For each audio block, check the audio data against the BSI
￭ If the data matches, check if the pointer to the audio data is invalid. If so, correct the pointer and try decoding the next block
￭ If the data does not match, correct the pointer and try decoding the next block
￭ If the pointer was not invalid, check the pointer to the BSI. If it is invalid, correct it and try decoding the next block.
￭ If the pointer was not invalid, check the pointer to the BSI. If it is invalid, correct it and try decoding the next block.
￭ If the pointer was not invalid, check the pointer to the BSI. If it is invalid, correct it and try decoding the next block.

So, basically you decode a block, check if the data matches the BSI, then check if the pointer to the audio data is invalid, and if so, correct it and try decoding the next block. This goes on until

Windows® 8.1, 8, 7, Vista and XP with 1GB of RAM.
OS version: 1.1.0.5431
Minimum processor: Intel® Celeron® or AMD® Pentium® processor
Minimum graphics: 1024 x 768 resolution
Recommended graphics: 1280 x 1024 resolution
Minimum size: 533KB
Maximum size: 1.4MB
Software titles: Manhunter 2: Dark Zone
System requirements:
Windows® 7 and Vista with

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