User's Guide
SNAU037B – February 2008 – Revised July 2019
LMK01000
The LMK01000EVM is for the LMK01000 1.6 GHz High Performance Clock Buffer, Divider, and
Distributer. The EVM can be used for device evaluation, compliance testing, and system prototyping.
Figure 1. LMK01000EVM
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LMK01000
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Contents
Overview ......................................................................................................................
Necessary Equipment .......................................................................................................
Basic Operation ..............................................................................................................
Schematics ...................................................................................................................
Quick Start for EVM communications .....................................................................................
1
LMK01000EVM
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3
3
6
9
List of Figures
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3
4
5
6
7
8
9
10
11
.............................................................................................................. 1
LMK01000 EVM Set Up .................................................................................................... 4
GUI 1 .......................................................................................................................... 4
GUI 2 .......................................................................................................................... 5
Schematic 1 .................................................................................................................. 6
Schematic 2 .................................................................................................................. 7
Schematic 3 .................................................................................................................. 8
USB2ANY-uWIRE Set up .................................................................................................. 9
USB2ANY-uWIRE Board Set Up .......................................................................................... 9
10 Pin Adapter Configuration ............................................................................................. 10
USB2ANY to LMK01000 Jumper Configuration ........................................................................ 10
Trademarks
All trademarks are the property of their respective owners.
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LMK01000
SNAU037B – February 2008 – Revised July 2019
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User's Guide
SNAU037B – February 2008 – Revised July 2019
LMK01000 EVM Operating Instructions
1
Overview
The LMK01000EVM is for the LMK01000 1.6 GHz High Performance Clock Buffer, Divider, and
Distributer. The EVM can be used for device evaluation, compliance testing, and system prototyping.
2
Necessary Equipment
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•
•
•
3
Power Supply:
– The Power Supply should be a low noise power supply. An Agilent 6623A Triple power supply with
LC filters on the output to reduce noise was used in creating these evaluation board instructions.
Phase Noise / Spectrum Analyzer:
– For measuring phase noise an Agilent E5052A is recommended. An Agilent E4445A PSA
Spectrum Analyzer with the Phase Noise option is also usable although the architecture of the
E5052A is superior for phase noise measurements. At frequencies less than 100 MHz the local
oscillator noise of the PSA is too high and measurements will be of the local oscillator, not the
device under test
Oscilloscope:
– The oscilloscope and probes should be capable of measuring the output frequencies of interest
when evaluating this board. The Agilent Infiniium DSO81204A was used in creating these
evaluation board instructions.
Reference Oscillator:
– The on board crystal oscillator will provide a low noise reference signal to the device at offsets
greater than 1 kHz. Note: The default loop filter has a loop bandwidth of ~60 kHz. Inside the loop
bandwidth of a PLL the noise is greatly affected by any noise on the reference oscillator (OSCin).
Therefore any noise on the oscillator less than 60 kHz will be passed through and seen on the
outputs. For this reason the main output of a Signal Generator is not recommended for driving
OSCin in this setup.
Basic Operation
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•
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1) Connect a low noise 3.3 V power supply to the Vcc connector located at the top left of the board.
2) Connect 122.88 MHz signal from signal generator output to CLKin0 of board.
3) Connect PC to the uWire header. For quick start on interfacing the board please see Section 5.
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Basic Operation
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Figure 2. LMK01000 EVM Set Up
•
•
4) Start TICS Pro software.
5) Select the device by "Select Device"→ "Clock Distribution with Divider"→"LMK10x0"→"LMK1000".
Figure 3. GUI 1
4
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Basic Operation
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•
6) Enable the output to measure (example CLKout0 is enabled see Figure 4).
Figure 4. GUI 2
•
7) Program the part by clicking "USB communications"→"Write All Registers" or by pressing Ctrl+L.
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Schematics
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Schematics
LMK02000 - Main Board
LMK02000 - Main Board.sch
LMK02000 - Outputs
LMK02000 - Outputs.sch
F1
SMA_CONN
Vcc
Vcc
GND_J1
1
3
5
7
9
VCC_J1
2
4
6
8
10
1
3
5
7
9
HEADER_2X5
2
4
6
8
10
HEADER_2X5
Vcc
Vcc
GND_J2
1
3
5
7
9
VCC_J2
2
4
6
8
10
HEADER_2X5
1
3
5
7
9
2
4
6
8
10
HEADER_2X5
Figure 5. Schematic 1
6
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Schematics
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Vcc
Vcc
Vcc
CLKout0
R86
Open
CLKout0
SMA
CLKout0
PC0b
CLKout1
Open
CLKout1
R93
Open
C88
CLKout0*
PC1b
Vcc
R101
Open
R102
Open
PC2b
Vcc
Vcc
CLKout4
R114
Open
CLKout4
Vcc
SMA
CLKout4
CLKout5
0.1 uF
PC4
PC4b
C96
R121
Open
CLKout4*
SMA
PC5b
C97
CLKout5*
Open
CLKout5*
0.1 uF
R128
Open
R130
R129
120 ohm 120 ohm
R119
Open
CLKout6
Open
R132
Open
PC6b
C98
R120
Open
CLKout7
SMA
CLKout7
R123
Open
CLKout6*
Open
CLKout6*
R133
R134
120 ohm 120 ohm
Vcc
C95
PC7
PC7b
C99
R124
Open
CLKout7*
SMA
CLKout7*
0.1 uF
R131
Open
R112
Open
0.1 uF
PC6
0.1 uF
R127
Open
Vcc
R118
Open
CLKout6
R122
Open
R111
Open
Vcc
0.1 uF
PC5
CLKout4*
R109
R110
120 ohm 120 ohm
C94
0.1 uF
CLKout3*
SMA
CLKout3*
R108
Open
CLKout7
R117
Open
CLKout5
Open
R96
Open
0.1 uF
R107
Open
R116
Open
C93
PC3b
C91
CLKout6
R115
Open
C92
R106
Open
Vcc
CLKout5
R113
Open
PC3
CLKout2*
Open
CLKout2*
R105
Open
CLKout3
SMA
CLKout3
R95
Open
C90
R104
Open
R92
Open
C87
0.1 uF
R103
Open
Vcc
0.1 uF
PC2
CLKout1*
Open
CLKout1*
R100
Open
CLKout2
Open
CLKout2
0.1 uF
R99
Open
R91
Open
C86
R94
Open
C89
0.1 uF
Vcc
R90
Open
0.1 uF
PC1
CLKout0*
SMA
Vcc
CLKout3
R89
Open
0.1 uF
PC0
R126
R125
120 ohm 120 ohm
R88
Open
C85
0.1 uF
R98
Open
Vcc
CLKout2
R87
Open
C84
R97
Open
Vcc
CLKout1
R85
Open
0.1 uF
R135
Open
R136
Open
R138
R137
120 ohm 120 ohm
R139
Open
R140
Open
Figure 6. Schematic 2
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Schematics
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Vcc
Vin
R5
OSC_Vcc
R1
Open
0 ohm
R3
0 ohm
Vcc
Open
Vcc
Open
C5
Open
2
GND_ tp 2
C11
Open
R24
0 ohm
3
Vtune
Vs
1
RF*
NC
GND
VccPlane
RF
Y2
1
6
Vcont
Vcc
4
2
GND
Out
3
3
OSC_RF1
R21
Open
SD
NC
SCT
PD
S
R19
Open
6
C9
DUT_ OSCin*
4
0.1 uF
C10
OSCin*
R141
Open
R25
SMA
R22
R23
51 ohm 51 ohm
Open
0 ohm
C13
100 pF
C14
10 uF
0.1 uF
5
BALUN - ADT2-1T
CC33xx
CCHD0950
Vcc3
Vcc
P
2
R20
0 ohm
C12
Open
OSC_RF2
DUT_ OSCin
ADT2-1T
4
OSC
5
C6
B10 ohm
R16
0 ohm
OSCin
R11
Open
R15
GND
SMA
Y1
GND_tp 1
C8
0.1 uF
R18
Open
1
Vin
GND
0 ohm
C7
Open
R17
Open
R10
Open
R12
0 ohm
R14
Vcc
Vcc
OSCin
R7
220 ohm
OSC_RF2
R13
C4
Open
Vcc
22 ohm
R6
220 ohm
R8
R9
Open
Vcc
OSC_RF
R4
OSC_RF1
Open
C3
Open
SMA
GND
Vcc4
C15
10 uF
C16
100 pF
C18
100 pF
Vcc1
C20
100 pF
Vt
2
C19
Open
NC
G
3
Y4
7
6
G
Vcc
Vcc6
Fout
5
Open
4
C21
10 uF
VCO
8
1
Open
G
R26
Vcc5
G
C17
10 uF
Vtu neVCO
VCO_ RF
C22
100 pF
Vcc2
VCO_ VCXO_ Vcc
C23
100 pF
Vcc11
C28
100 pF
Vcc12
VCXO_VCO_ Vcc
R27
Open
Vcc
C32
100 pF
C33
100 pF
Vcc9
Fin
C31
0.1 uF
C36
100 pF
Vcc14
1
Vtune
2
C38
100 pF
Vcc10
C39
Open
Vs
RF*
NC
3
C42
100 pF
GND
RF
R35
Open
R38
Open
6
C37
5
GND
R36
Open
VCXO_ RF*
4
C41
VCXO_ RF
C47
0.1 uF
C48
0.1 uF
C56
1 uF
C49
1 uF
C50
0.1 uF
C57
1 uF
C51
0.1 uF
C52
1 uF
C53
0.1 uF
C58
1 uF
SD
P
2
R41 0 ohm
C34
BALUN
1
R40 0 ohm
Open
3
Open
NC
SCT
PD
S
DUT_Fin
6
R39
Open
5
R43
Open
4
DUT_ Fin*
R44
51 ohm
R45
51 ohm
0.1 uF
C43
C44
Open
Open
0 ohm
0 ohm
C54
0.1 uF
R142
Open
R46
R47
0.1 uF
C40
BALUN - ADT-ETC Hybrid
Fin
C46
1 uF
R32
Open
B2
GND
R37
Open
R42
Open
SMA
C45
0.1 uF
Vcc
R31
Open
0 ohm
R34
Open
VCXO
Vcc
C55
1 uF
Vcc
R33
VCXO
VtuneVCXO
Y3
C35
Open
C27
Open
R30
0 ohm
C30
Open
Vcc13
Open
C26
Open
R29
Open
GND
C29
100 pF
Vcc8
Open
C24
Open
C25
100 pF
Vcc7
Vcc
R28
GND
GND
R48
0 ohm
GND
Fin*
Vcc
SMA
C62
0.1 uF
C71
1 uF
C63
1 uF
C64
0.1 uF
C72
1 uF
C65
0.1 uF
C66
1 uF
C67
0.1 uF
C68
1 uF
CLKout6
CLKout6*
C69
0.1 uF
CLKout5*
CLKout5
CLKout4*
CLKout4
Vcc14
LEuWire
7
GND
uWire
HEADER_2X5
R74
Open
C79
Open
Vcc2
8
R76
Open
9
10
1
3
5
7
9
R75
Open
R77
0 ohm
Pin7_TP
GOE
R78
0 ohm
Pin5_TP
LD
C80
10 uF
12
R83
SYNC*
Open
38
37
Vcc11
CLKout4
CLKout4*
41
39
42
40
Vcc12
CLKout5
43
Vcc13
CLKout5*
Vcc10
CLKuWire
NC
DATAuWire
LEuWire
Vcc9
LMK01000
NC
Vcc8
CLKin0*
Vcc2
LDObyp1
CLKin0
LDObyp2
SYNC*
GOE
Vcc7
NC
GND
Vcc4
Vcc5
36
35
VtuneVCXO
DUT_Fin *
34
Vcc10
DUT_Fin
33
R68
0 ohm
R69
32
Vcc9
0 ohm
31
Vcc8
29
DUT_OSCin*
28
C2
Open
Open
R72
30
R63
0 ohm
C1
390 pF
VtuneVCO
R66
Op en
R70
Vtune
Open
Open
C2p
10 uF
Open
R73
R2
4.7 k
DUT_OSCin
27
Vcc7
SYNC*
26
25
SYNC*_TP
Open
R80
C2_ AUX
0.1 uF
C1_AUX
3.3 nF
LD_TP
Vcc3
C83
R84
100 pF 27 k
44
47
CLKin1
C81
0.1 uF
GOE_TP
45
CLKin1*
13
SYNC*
Op en
R82
15 k
11
R79
Open
Vcc
R81
Open
5
6
R51
Open
CLKout3*
DATAuWire
NC
CLKout3
CLKuWire
BALUN - ADT-ETC Hybrid
TC1-1-13M+
Open
4
Bias
GND
C73
1 uF
Vcc1
Vcc6
R65
270 ohm
3
23
PD
R64
270 ohm
3
47 pF
U1
24
2
4
6
8
10
R71
Open
GOE
GOE
S
2
Vcc1
18 ohms
22
Fout*
Pin10_TP
C78
R62
1
2
CLKout2*
Vcc
4
P
NC
CLKout2
R67
Open
1
BALUN
SCT
21
5
SD
Vcc5
0 ohm
B3
CLKout1*
SMA
CLKout6
R53
CLKout1
Fout
17
LD
Open
CLKout6*
0 ohm
46
48
R52
C74
Open
Vcc4
R61
Open
16
R60
15 k
Vcc14
R59
15 k
CLKout7
LD
R58
27 k
CLKout7*
C76
Open
6
Open
R49
0 ohm
Vcc11
GND
R57
15 k
Vcc1 2
0
LEuWire
R56
27 k
CLKout0*
C75
Open
Vcc3
C77
Open
R55
15 k
CLKout0
DATAuWire
R50
Open
CLKuWire
R54
27 k
Vcc13
LEuWire
14
DATAuWire
15
CLKuWire
Vcc
CLKout7
CLKout7*
Vcc
20
C61
0.1 uF
19
C60
1 uF
18
C59
0.1 uF
C70
1 uF
R2 _AUX
47 k
C2p_AUX
Open
C82
Open
Vcc6
CLKout0
CLKout0*
CLKout3*
CLKout3
CLKout1
CLKout1*
CLKout2*
CLKout2
Figure 7. Schematic 3
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Quick Start for EVM communications
TICS Pro is the software used to communicate with the EVM (Please download the latest version from
TI.com - http://www.ti.com/tool/TICSPRO-SW). This EVM can be controlled through the uWire interface on
the board using USB2ANY and an adapter board. Under "USB communications" → "interface" select
USB2ANY.
Figure 8. USB2ANY-uWIRE Set up
Figure 9. USB2ANY-uWIRE Board Set Up
Alternatively if a USB2ANY-uWIRE board is not available the 10 pin connector can be spliced and
connected as shown in Figure 10, or jumpers can be used to connect USB2ANY directly to the EVM.
Necessary connections include: GND, DATA, CLK, LE, GOE, and SYNC.
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Quick Start for EVM communications
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Figure 10. 10 Pin Adapter Configuration
Figure 11. USB2ANY to LMK01000 Jumper Configuration
10
LMK01000 EVM Operating Instructions
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Revision History
NOTE: Page numbers for previous revisions may differ from page numbers in the current version.
Changes from A Revision (November 2013) to B Revision ........................................................................................... Page
•
Changed throughout document. ......................................................................................................... 3
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