SLAZ741D March   2023  – August 2025 MSPM0L1105 , MSPM0L1106 , MSPM0L1303 , MSPM0L1304 , MSPM0L1305 , MSPM0L1306 , MSPM0L1343 , MSPM0L1344 , MSPM0L1345 , MSPM0L1346

 

  1.   1
  2.   Abstract
  3. 1Functional Advisories
  4. 2Preprogrammed Software Advisories
  5. 3Debug Only Advisories
  6. 4Fixed by Compiler Advisories
  7. 5Device Nomenclature
    1. 5.1 Device Symbolization and Revision Identification
  8. 6Advisory Descriptions
    1. 6.1  ADC_ERR_01
    2. 6.2  ADC_ERR_02
    3. 6.3  ADC_ERR_03
    4. 6.4  ADC_ERR_04
    5. 6.5  ADC_ERR_05
    6. 6.6  ADC_ERR_06
    7. 6.7  COMP_ERR_01
    8. 6.8  COMP_ERR_02
    9. 6.9  COMP_ERR_03
    10. 6.10 COMP_ERR_05
    11. 6.11 CPU_ERR_01
    12. 6.12 CPU_ERR_02
    13. 6.13 CPU_ERR_03
    14. 6.14 FLASH_ERR_02
    15. 6.15 FLASH_ERR_04
    16. 6.16 FLASH_ERR_05
    17. 6.17 FLASH_ERR_06
    18. 6.18 GPIO_ERR_01
    19. 6.19 GPIO_ERR_02
    20. 6.20 GPIO_ERR_03
    21. 6.21 I2C_ERR_01
    22. 6.22 I2C_ERR_02
    23. 6.23 I2C_ERR_03
    24. 6.24 I2C_ERR_04
    25. 6.25 I2C_ERR_05
    26. 6.26 I2C_ERR_06
    27. 6.27 I2C_ERR_07
    28. 6.28 I2C_ERR_08
    29. 6.29 I2C_ERR_09
    30. 6.30 I2C_ERR_10
    31. 6.31 PMCU_ERR_01
    32. 6.32 PMCU_ERR_02
    33. 6.33 PMCU_ERR_03
    34. 6.34 PMCU_ERR_13
    35. 6.35 PWREN_ERR_01
    36. 6.36 RST_ERR_01
    37. 6.37 SPI_ERR_01
    38. 6.38 SPI_ERR_03
    39. 6.39 SPI_ERR_04
    40. 6.40 SPI_ERR_05
    41. 6.41 SPI_ERR_06
    42. 6.42 SPI_ERR_07
    43. 6.43 SYSOSC_ERR_01
    44. 6.44 SYSOSC_ERR_02
    45. 6.45 TIMER_ERR_01
    46. 6.46 TIMER_ERR_04
    47. 6.47 TIMER_ERR_06
    48. 6.48 UART_ERR_01
    49. 6.49 UART_ERR_02
    50. 6.50 UART_ERR_04
    51. 6.51 UART_ERR_05
    52. 6.52 UART_ERR_06
    53. 6.53 UART_ERR_07
    54. 6.54 UART_ERR_08
    55. 6.55 UART_ERR_09
    56. 6.56 VREF_ERR_01
  9. 7Revision History

6.6 ADC_ERR_06

ADC Module

Category

Functional

Function

ADC Output code jumps degrading DNL/INL specification

Description

The ADC may have errors at a rate as high as 1 in 2M conversions in 12-bit mode.

When a conversion error occurs, it will be a +/- 64LSB random jump in the digital output of the ADC without a corresponding change in the ADC input voltage.

Depending on the application needs the best workaround may vary, but the following workarounds in software are proposed. Selection of the best workaround is left to the judgment of the system designer.

Workaround

Workaround 1: Upon ADC result outside of application threshold (via ADC Window Comparator or software thresholding), trigger or wait for another ADC result before making critical system decisions

Workaround 2: During post-processing, discard ADC values which are sufficiently far from the median or expected value. The expected value should be based on the average of real samples taken in the system, and the threshold for rejection should be based on the magnitude of the measured system noise.

Workaround 3: Use ADC sample averaging to minimize the effect of the results of any single incorrect conversion.