User Manual
Table Of Contents
- 1. Pin Description
- 2. Characteristics and Specifications
- Recommended Operating Conditions
- Absolute Maximum Ratings
- DAC Analog Characteristics
- Power and Thermal Characteristics
- Combined Interpolation & On-Chip Analog Filter Response
- Combined Interpolation & On-Chip Analog Filter Response
- DSD Combined Digital & On-Chip Analog Filter Response
- Digital Characteristics
- Switching Characteristics - PCM
- Switching Characteristics - DSD
- Switching Characteristics - Control Port - I·C Format
- Switching Characteristics - Control Port - SPI Format
- 3. Typical Connection Diagram
- 4. Applications
- 4.1 Master Clock
- 4.2 Mode Select
- 4.3 Digital Interface Formats
- Figure 8. Format 0 - Left-Justified up to 24-bit Data
- Figure 9. Format 1 - I·S up to 24-bit Data
- Figure 10. Format 2 - Right-Justified 16-bit Data
- Figure 11. Format 3 - Right-Justified 24-bit Data
- Figure 12. Format 4 - Right-Justified 20-bit Data
- Figure 13. Format 5 - Right-Justified 18-bit Data
- 4.3.1 OLM #1
- 4.3.2 OLM #2
- 4.4 Oversampling Modes
- 4.5 Interpolation Filter
- 4.6 De-Emphasis
- 4.7 ATAPI Specification
- 4.8 Direct Stream Digital (DSD) Mode
- 4.9 Grounding and Power Supply Arrangements
- 4.10 Analog Output and Filtering
- 4.11 The MUTEC Outputs
- 4.12 Recommended Power-Up Sequence
- 4.13 Recommended Procedure for Switching Operational Modes
- 4.14 Control Port Interface
- 4.15 Memory Address Pointer (MAP)
- 5. Register Quick Reference
- 6. Register Description
- 6.1 Chip Revision (Address 01h)
- 6.2 Mode Control 1 (Address 02h)
- 6.3 PCM Control (Address 03h)
- 6.4 DSD Control (Address 04h)
- 6.5 Filter Control (Address 05h)
- 6.6 Invert Control (Address 06h)
- 6.7 Group Control (Address 07h)
- 6.8 Ramp and Mute (Address 08h)
- 6.9 Mute Control (Address 09h)
- 6.10 Mixing Control (Address 0Ah, 0Dh, 10h, 13h)
- 6.11 Volume Control (Address 0Bh, 0Ch, 0Eh, 0Fh, 11h, 12h)
- 6.12 PCM Clock Mode (Address 16h)
- 7. Filter Response Plots
- Figure 24. Single-Speed (fast) Stopband Rejection
- Figure 25. Single-Speed (fast) Transition Band
- Figure 26. Single-Speed (fast) Transition Band (detail)
- Figure 27. Single-Speed (fast) Passband Ripple
- Figure 28. Single-Speed (slow) Stopband Rejection
- Figure 29. Single-Speed (slow) Transition Band
- Figure 30. Single-Speed (slow) Transition Band (detail)
- Figure 31. Single-Speed (slow) Passband Ripple
- Figure 32. Double-Speed (fast) Stopband Rejection
- Figure 33. Double-Speed (fast) Transition Band
- Figure 34. Double-Speed (fast) Transition Band (detail)
- Figure 35. Double-Speed (fast) Passband Ripple
- Figure 36. Double-Speed (slow) Stopband Rejection
- Figure 37. Double-Speed (slow) Transition Band
- Figure 38. Double-Speed (slow) Transition Band (detail)
- Figure 39. Double-Speed (slow) Passband Ripple
- Figure 40. Quad-Speed (fast) Stopband Rejection
- Figure 41. Quad-Speed (fast) Transition Band
- Figure 42. Quad-Speed (fast) Transition Band (detail)
- Figure 43. Quad-Speed (fast) Passband Ripple
- Figure 44. Quad-Speed (slow) Stopband Rejection
- Figure 45. Quad-Speed (slow) Transition Band
- Figure 46. Quad-Speed (slow) Transition Band (detail)
- Figure 47. Quad-Speed (slow) Passband Ripple
- 8. References
- 9. Parameter Definitions
- 10. Package Dimensions
- 11. Ordering Information
- 12. Revision History

DS619F1 29
CS4364
converted incorrectly by the Hardware Mode settings).
4. Set the PDN bit to 0. This will initiate the power-up sequence, which lasts approximately 50 µs.
4.13 Recommended Procedure for Switching Operational Modes
For systems where the absolute minimum in clicks and pops is required, it is recommended that the MUTE
bits are set prior to changing significant DAC functions (such as changing sample rates or clock sources).
The mute bits may then be released after clocks have settled and the proper modes have been set.
It is required to have the device held in reset if the minimum high/low time specs of MCLK can not be met
during clock source changes.
4.14 Control Port Interface
The control port is used to load all the internal register settings in order to operate in Software Mode (see
the “Parameter Definitions” on page 47). The operation of the control port may be completely asynchronous
with the audio sample rate. However, to avoid potential interference problems, the control port pins should
remain static if no operation is required.
The control port operates in one of two modes:
I²C or SPI.
4.14.1 MAP Auto Increment
The device has MAP (memory address pointer) auto increment capability enabled by the INCR bit (also
the MSB) of the MAP. If INCR is set to 0, MAP will stay constant for successive
I²C writes or reads and
SPI writes. If INCR is set to 1, MAP will auto increment after each byte is written, allowing block reads or
writes of successive registers.
4.14.2 I²C Mode
In the I²C Mode, data is clocked into and out of the bi-directional serial control data line, SDA, by the serial
control port clock, SCL (see Figure 22 for the clock to data relationship). There is no CS
pin. Pin AD0 en-
ables the user to alter the chip address (001100[AD0][R/W
]) and should be tied to VLC or GND as re-
quired, before powering up the device. If the device ever detects a high to low transition on the AD0/CS
pin after power-up, SPI Mode will be selected.
4.14.2.1 I²C Write
To write to the device, follow the procedure below while adhering to the control port Switching Specifica-
tions in Section 2.
1. Initiate a START condition to the
I²C bus followed by the address byte. The upper 6 bits must be
001100. The seventh bit must match the setting of the AD0 pin, and the eighth must be 0. The eighth
bit of the address byte is the R/W
bit.
2. Wait for an acknowledge (ACK) from the part, then write to the memory address pointer, MAP. This
byte points to the register to be written.
3. Wait for an acknowledge (ACK) from the part, then write the desired data to the register pointed to by
the MAP.
4. If the INCR bit (see Section 4.14.1) is set to 1, repeat the previous step until all the desired registers
are written, then initiate a STOP condition to the bus.
5. If the INCR bit is set to 0 and further
I²C writes to other registers are desired, it is necessary to initiate
a repeated START condition and follow the procedure detailed from step 1. If no further writes to other
registers are desired, initiate a STOP condition to the bus.