AD535_Id

Description

This AD535_Id structure is used to allocate a codec channel. You create

 

and initialize this structure, then pass its address to the AD535_open()

 

function. Also, this structure allows you to access to the McBSP handle

 

through the AD535_getMcbspHandle() function after calling

 

AD535_open().

 

If you wish to use the AD535 codec implemented on C6711DSK you can

 

pass the predefined pointer AD535_ON_6711DSK.

 

The predefined pointer AD535_locald associates the codec to the

 

mcbsp0 directly. It’s not necessary to define AD535_Id pointer.

 

mcbsp_no variable is set to 0 (mcbsp0)

 

See source file bsl_ad535.c

Example

/* the codec of C6711DSK use the predfined pointer

 

AD535_ON_6711DSK*/

 

AD535_Handle hAD535;

 

Mcbsp_Handle hMcbsp;

 

hAD535 = AD535_open(AD535_ON_6711DSK);

 

hMcbsp = AD535_getHandleMcbsp(hAD535);

 

To set up your own AD535_Id, for example:

 

/* set up a codec using McBSP 1 */

 

AD535_Handle hAD535;

 

AD535_Id myId;

 

myId.Id.mcbsp_no = 1;

 

Mcbsp_Handle hMcbsp1;

 

hAD535 = AD535_open(*myId);

 

hMcbsp1 = AD535_getHandleMcbsp(hAD535);

 

Note: You can also use the Mcbsp1 if you haven;t opened an AD535

 

handle with the predefined AD535_ON_6711DSK object.

AD535 API Module

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Texas Instruments TMS320C6000 manual AD535Id, Codec of C6711DSK use the predfined pointer
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TMS320C6000 specifications

The Texas Instruments TMS320C6000 series is a family of digital signal processors (DSPs) that has gained significant traction in the field of digital signal processing since its introduction. Leveraging advanced processing technologies, the TMS320C6000 DSPs are particularly recognized for their high-performance capabilities, efficiency, and versatility, making them suitable for a wide variety of applications, including telecommunications, audio and video processing, medical instrumentation, and more.

One of the main features of the TMS320C6000 series is its advanced architecture, which incorporates a superscalar pipeline. This allows for the simultaneous execution of multiple instructions, leading to enhanced processing speeds. The architecture is designed to support both fixed-point and floating-point operations, offering flexibility for different computational requirements. The use of VLIW (Very Long Instruction Word) technology allows the execution of multiple operations in a single instruction cycle, further maximizing performance.

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An important aspect of the TMS320C6000 series is its scalability. The family includes a wide range of devices, from low-power processors suitable for portable equipment to high-performance models designed for demanding computation tasks. This scalability ensures that developers can select the appropriate DSP for their specific application requirements.

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