SNAA410 July   2024 CDCDB2000 , LMKDB1102 , LMKDB1104 , LMKDB1108 , LMKDB1120 , LMKDB1202 , LMKDB1204

 

  1.   1
  2.   Abstract
  3.   Trademarks
  4. 1 Introduction
  5. 2 RC19020 vs. LMKDB1120 Comparison
    1. 2.1 RC19020 vs. LMKDB1120 Pin Comparison
    2. 2.2 RC19020 vs. LMKDB1120 Exposed Registers Comparison
  6. 3 9QXL2001B vs. LMKDB1120 Comparison
    1. 3.1 9QXL2001B vs. LMKDB1120 Pin Comparison
    2. 3.2 9QXL2001B vs. LMKDB1120 Exposed Register Comparison
  7. 4 9QXL2001C vs. LMKDB1120 Comparison
    1. 4.1 9QXL2001C vs. LMKDB1120 Pin Comparison
    2. 4.2 9QXL2001C vs. LMKDB1120 Exposed Registers Comparison
  8. 5 CDCDB2000 vs. LMKDB1120 Comparison
  9. 6 RC19008 vs. LMKDB1108 Comparison
    1. 6.1 RC19008 vs. LMKDB1108 Pin Comparison
    2. 6.2 RC19008 vs. LMKDB1108 Exposed Registers Comparison
  10. 7 RC19004 vs. LMKDB1104 Comparison
    1. 7.1 RC19004 vs. LMKDB1104 Pin Comparison
    2. 7.2 RC19004 vs. LMKDB1104 Exposed Register Comparison
  11. 8 RC19204 vs. LMKDB1204 Comparison
    1. 8.1 RC19204 vs. LMKDB1204 Pin Comparison
    2. 8.2 RC19204 vs. LMKDB1204 Exposed Register Comparison
  12. 9 RC19202 vs. LMKDB1202 Comparison
    1. 9.1 RC19202 vs. LMKDB1202 Pin Comparison
    2. 9.2 RC19202 vs. LMKDB1202 Exposed Registers Comparison
  13. 10RC19002 vs. LMKDB1102 Comparison
    1. 10.1 RC19002 vs. LMKDB1102 Pin Comparison
    2. 10.2 RC19002 vs. LMKDB1102 Exposed Registers Comparison
  14. 11Summary
  15. 12References

4.1 9QXL2001C vs. LMKDB1120 Pin Comparison

To summarize, no hardware changes are required when replacing the 9QXL2001C with the LMKDB1120.

PIN Pin Differences between 9QXL2001C and LMKDB1120 that Affect Drop-In Replacements Design Requirements when Replacing the 9QXL2001C with the LMKDB1120
TI NAME RENESAS NAME NO. TYPE
Input
CLKIN_P DIF_IN G1 I No differences. N/A.
CLKIN_N DIF_IN# H1 I
Output
CLK0_P DIF0 J1 O No difference N/A
CLK0_N DIF0# K1 O
CLK1_P DIF1 L1 O
CLK1_N DIF1# M1 O
CLK2_P DIF2 M2 O
CLK2_N DIF2# M3 O
CLK3_P DIF3 M4 O
CLK3_N DIF3# M5 O
CLK4_P DIF4 M7 O
CLK4_N DIF4# M8 O
CLK5_P DIF5 M9 O
CLK5_N DIF5# M10 O
CLK6_P DIF6 M11 O
CLK6_N DIF6# M12 O
CLK7_P DIF7 L12 O
CLK7_N DIF7# K12 O
CLK8_P DIF8 J12 O
CLK8_N DIF8# H12 O
CLK9_P DIF9 G12 O
CLK9_N DIF9# F12 O
CLK10_P DIF10 D12 O
CLK10_N DIF10# C12 O
CLK11_P DIF11 B12 O
CLK11_N DIF11# A12 O
CLK12_P DIF12 A11 O
CLK12_N DIF12# A10 O
CLK13_P DIF13 A9 O
CLK13_N DIF13# A8 O
CLK14_P DIF14 A7 O
CLK14_N DIF14# A6 O
CLK15_P DIF15 A5 O
CLK15_N DIF15# A4 O
CLK16_P DIF16 A3 O
CLK16_N DIF16# A2 O
CLK17_P DIF17 A1 O
CLK17_N DIF17# B1 O
CLK18_P DIF18 C1 O
CLK18_N DIF18# D1 O No difference N/A.
CLK19_P DIF19 E1 O
CLK19_N DIF19# F1 O
Output Enable
vOE0#/NC NC J2 I Completing a drop-in replacement does not require any changes on these pins. These pins are NC for both the 9QXL2001C and the LMKDB1120 and can be left floating. LMKDB1120 offers an additional active low OE function for CLK0, CLK1, CLK2, CLK3, and CLK4. These LMKDB1120 pins have internal pulldown resistors that enable the outputs by default and can be left floating. N/A.
vOE1#/NC NC K2 I
vOE2#/NC NC L3 I
vOE3#/NC NC L6 I
vOE4#/NC NC L9 I
vOE5#/SBI_IN vOE5#/DATA L8 I No differences
vOE6#/SBI_CLK vOE6#/CLK L10 I
vOE7# vOE7# K11 I
vOE8# vOE8# H11 I
vOE9# vOE9# E12 I
vOE10#/SHFT_LD# vOE10#/SHFT_LD# E11 I
vOE11# vOE11# C11 I
vOE12# vOE12# B10 I
vOE13#/NC NC B9 I Completing a drop-in replacement does not require any changes on these pins. These pins are NC for both the 9QXL2001B and the LMKDB1120 and can be left floating. LMKDB1120 offers an additional active low OE function for CLK13, CLK14, CLK15, CLK16, CLK17, CLK18 and CLK19. These LMKDB1120 pins have internal pulldown resistors that enable the outputs by default and can be left floating.
vOE14#/NC NC B7 I
vOE15#/NC NC B5 I
vOE16#/NC NC B3 I
vOE17#/NC NC D2 I
vOE18#/NC NC D11 I
vOE19#/NC NC J11 I
Communication
SBI_OUT/NC NC C2 O Completing a drop-in replacement does not require any changes on these pins. These pins are NC for both the 9QXL2001C and the LMKDB1120 and can be left floating. LMKDB1120 offers an additional SBI output function. This pin can be left floating since SBI data output pin is optional and only needed when forming a daisy chain topology. N/A.
SMB_DATA SMBDAT L4 I/O No differences.
SMB_CLK SMBCLK L5 I
vSBI_EN vSBEN E2 I
^vSADR1_tr ^vSADR1_tri B8 I
^vSADR0_tr ^vSADR0_tri B4 I
Power
VDDA VDDR3.3 H2 P Completing a drop-in replacement does not require any changes on this pin. The input receiver power supply pin name is different between the 9QXL2001C and the LMKDB1120. TI decided to follow DB2000QL’s definition for naming the input receiver power supply pin as VDDA. No changes are required. Keep the same power filtering used for the 9QXL2001C.
VDD VDDO3.3 B2 P No difference
VDD VDDA3.3 B6 P Completing a drop-in replacement does not require any changes on this pin. This pin name is different between the 9QXL2001C and the LMKDB1120. TI decided to follow DB2000QL’s definition for naming the input receiver power supply pin as VDDA. Pin B6 is not an input receiver power supply pin on the LMKDB1120 and was not labeled as such.
VDD VDDO3.3 B11 P No differences.
VDD VDDO3.3 L2 P
VDD VDDO3.3 L11 P
Miscellaneous
DAP EPAD GND G No difference N/A.
LOS#/NC NC G11 O Completing a drop-in replacement does not require any changes on this pin. These pins are NC for both the 9QXL2001C and the LMKDB1120 and can be left floating. LMKDB1120 offers an additional LOS# function. This pin is open drain and can be left floating. Open drain outputs require an external pullup resistor to close the current path and generate a signal.
NC NC F2 NC No differences.
NC NC F11 NC
NC NC G2 NC
NC NC L7 NC
vPWRGD/PWRDN# vCKPWRGD_PD# M6 I