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VCC_OUT

VCC_OUT

VCC_OUT

VCC_OUT

VCC_OUT

YP0

YN0

YP1

YN1

YP2

YN2

YP3

YN3

YP4

YN4

Y0_150_TERM

Y1_150_TERM

Y2_150_TERM

Y3_150_TERM

Y4_150_TERM

YP0

YN0

YP1

YN1

YP2

YN2

YP3

YN3

YP4

YN4

OUTPUTCLOCKS

YP0

YN0

YP1

YN1

YP2

YN2

YP3

YN3

YP4

YN4

1

2

R218

150

R218

150


3

1


5

J45

SMA-EDGE

J45

SMA-EDGE

1

2

R217

10k

R217

10k


3

1


5

J36

SMA-EDGE

J36

SMA-EDGE

1

2

R231

150

R231

150


3

1


5

J39

SMA-EDGE

J39

SMA-EDGE


3

1


5

J43

SMA-EDGE

J43

SMA-EDGE

Q55

FDV303N

Q55

FDV303N

1

2

R226

150

R226

150

1

2

R220

0-NP

R220

0-NP

Q58

FDV303N

Q58

FDV303N

Q54

FDV303N

Q54

FDV303N


3

1


5

J48

SMA-EDGE

J48

SMA-EDGE

Q62

FDV303N

Q62

FDV303N

1

2

R224

0-NP

R224

0-NP

Q60

FDV303N

Q60

FDV303N

1

2

R214

0-NP

R214

0-NP


3

1


5

J35

SMA-EDGE

J35

SMA-EDGE

1

2

R216

150

R216

150

1

2

R234

0-NP

R234

0-NP

C120

0.1uF

C120

0.1uF

1

2

R223

150

R223

150

1

2

R229

0-NP

R229

0-NP

C1

19

0.1uF

C1

19

0.1uF

1

2

R213

150

R213

150

Q56

FDV303N

Q56

FDV303N

1

2

R222

10k

R222

10k

C131

0.1uF

C131

0.1uF

Q57

FDV303N

Q57

FDV303N

C130

0.1uF

C130

0.1uF

1

2

R225

0-NP

R225

0-NP


3

1


5

J49

SMA-EDGE

J49

SMA-EDGE

1

2

R212

10k

R212

10k

C88

0.1uF

C88

0.1uF

1

2

R215

0-NP

R215

0-NP

C87

0.1uF

C87

0.1uF

C90

0.1uF

C90

0.1uF

Q45

FDV303N

Q45

FDV303N

1

2

R233

150

R233

150

1

2

R232

10k

R232

10k


3

1


5

J34

SMA-EDGE

J34

SMA-EDGE

C86

0.1uF

C86

0.1uF

1

2

R219

0-NP

R219

0-NP

1

2

R228

150

R228

150

1

2

R227

10k

R227

10k

Q61

FDV303N

Q61

FDV303N

1

2

R235

0-NP

R235

0-NP


3

1


5

J32

SMA-EDGE

J32

SMA-EDGE

Q59

FDV303N

Q59

FDV303N

1

2

R221

150

R221

150

C89

0.1uF

C89

0.1uF

C84

0.1uF

C84

0.1uF

1

2

R230

0-NP

R230

0-NP


3

1


5

J41

SMA-EDGE

J41

SMA-EDGE

1

2

R21

1

150

R21

1

150

CDCE62005EVM Board Schematic Diagram

www.ti.com

Low Phase Noise Clock Evaluation Module — up to 1.5 GHz

12

SCAU024 – September 2008

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Summary of Contents for CDCE62005EVM

Page 1: ...des up to five differential or ten single ended low jitter outputs The CDCE62005 supports single ended and differential input signals as well as providing a crystal oscillator circuit that operates in...

Page 2: ...the LVPECL output The corresponding load resistor must be selected in the software interface when an output is configured as LVPECL The LVCMOS outputs can operate at frequencies up to 250MHz The LVPEC...

Page 3: ...ocation browse to the CDCE62005EVM program file folder that was used during instillation If Windows does not ask for a driver no action is needed After USB driver installation the EVM software should...

Page 4: ...vider Input type Input selection PFD Charge Pump Internal External Loop Filter Output MUX selection Output Divider and Output type Other configurations are selected by the software with user selectabl...

Page 5: ...art MUX The Smart MUX section of the EVMCS can be clicked for a popup window that opens as shown in Figure 4 showing Selections on the EECLKSEL option 0 suggests using the REF_SEL pin for input select...

Page 6: ...be selected from the allowable dropdown list for each component Figure 6 Loop Filter Internal Only Alternately the loop filter with additional external components can be enabled by clicking the Use Ex...

Page 7: ...e outputs can be clicked to open a popup window that shows options for each output clock source These are selectable between LVPECL High Swing LVPECL in which cases the output 150 termination is autom...

Page 8: ...his configuration the USB microcontroller is powered by the USB port 5V supply while the CDCE62005 is powered by the 3 3V external supply This configuration is best for programming the CDCE62005 while...

Page 9: ...lable options on the CDCE62005EVM using the dip switches SW9 and SW10 located at the bottom side of the EVM and shown below Figure 11 External Loop Filter Selection Switches Configuration for PLL Lock...

Page 10: ...uF 1 2 C29 33pF C29 33pF 1 2 R138 4 7k R138 4 7k 1 2 R129 4 7k R129 4 7k 1 2 R110 10k R110 10k D8 MBRS2040LT3 D8 MBRS2040LT3 1 2 R7 33 R7 33 1 2 R144 10k R144 10k 1 2 R5 15k R5 15k 3 1 2 Q1 2N2222A Q1...

Page 11: ...5 SW10 TDA04H0SK1 SW10 TDA04H0SK1 1 2 R88 5 1 R88 5 1 C106 10uF C106 10uF 1 2 R76 5 1 R76 5 1 C116 100uF C116 100uF C105 1uF C105 1uF 1 2 R75 NP 1 09K R75 NP 1 09K C109 4 7uF X5R NP C109 4 7uF X5R NP...

Page 12: ...F C120 0 1uF 1 2 R223 150 R223 150 1 2 R229 0 NP R229 0 NP C119 0 1uF C119 0 1uF 1 2 R213 150 R213 150 Q56 FDV303N Q56 FDV303N 1 2 R222 10k R222 10k C131 0 1uF C131 0 1uF Q57 FDV303N Q57 FDV303N C130...

Page 13: ...4 RESET 14 VCC1_PLL 5 VCC2_PLL 42 SEC_REF 3 SEC_REF 2 VCC_IN 1 PRI_REF 45 PRI_REF 46 VCC_IN 47 VBB 48 EXT_LFP 40 AUX_IN 43 EXT_LFN 41 PLL_LOCK 37 VCC_VCO 35 THERMAL_PAD 49 U5 CDCE62005 U5 CDCE62005 C1...

Page 14: ...F C80 0 1uF C80 0 1uF OE 1 VCC 6 NC OUTN 5 OUT OUTP 4 GND 3 NC 2 U12 PE7745DU 30 72M U12 PE7745DU 30 72M C77 0 1uF C77 0 1uF C58 1uF C58 1uF 1 2 R130 49 9 R130 49 9 C78 0 1uF C78 0 1uF 1 3 2 JP_3_6 JP...

Page 15: ...TIES EXPRESSED IMPLIED OR STATUTORY INCLUDING ANY WARRANTY OF MERCHANTABILITY OR FITNESS FOR ANY PARTICULAR PURPOSE The user assumes all responsibility and liability for proper and safe handling of th...

Page 16: ...ting any load to the EVM output If there is uncertainty as to the load specification please contact a TI field representative During normal operation some circuit components may have case temperatures...

Page 17: ...siness practice TI is not responsible or liable for any such statements TI products are not authorized for use in safety critical applications such as life support where a failure of the TI product wo...

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