ADRF6603ACPZ-R7 [ADI]

2100 MHz to 2600 MHz Rx Mixer with Integrated Fractional-N PLL and VCO; 2100 MHz至2600 MHz的接收混频器,集成小数N分频PLL和VCO
ADRF6603ACPZ-R7
型号: ADRF6603ACPZ-R7
厂家: ADI    ADI
描述:

2100 MHz to 2600 MHz Rx Mixer with Integrated Fractional-N PLL and VCO
2100 MHz至2600 MHz的接收混频器,集成小数N分频PLL和VCO

文件: 总24页 (文件大小:490K)
中文:  中文翻译
下载:  下载PDF数据表文档文件
2100 MHz to 2600 MHz Rx Mixer with  
Integrated Fractional-N PLL and VCO  
ADRF6603  
FEATURES  
Table 1.  
Rx mixer with integrated fractional-N PLL  
RF input frequency range: 1100 MHz to 3200 MHz  
Internal LO frequency range: 2100 MHz to 2600 MHz  
Input P1dB: 14.6 dBm  
Input IP3: 27 dBm  
Input IP3 optimization via external pin  
SSB noise figure  
Internal LO  
Range  
3 dB RFIN  
Balun Range  
1 dB RFIN  
Balun Range  
Part No.  
ADRF6602 1550 MHz  
2150 MHz  
1000 MHz  
3100 MHz  
1100 MHz  
3200 MHz  
1350 MHz  
2750 MHz  
1450 MHz  
2850 MHz  
ADRF6603 2100 MHz  
2600 MHz  
The PLL reference input can support input frequencies from  
12 MHz to 160 MHz. The PFD output controls a charge pump  
whose output drives an off-chip loop filter.  
IP3SET pin open: 14.2 dB  
IP3SET pin at 3.3 V: 15.2 dB  
Voltage conversion gain: 6.9 dB  
Matched 200 Ω IF output impedance  
IF 3 dB bandwidth: 500 MHz  
Programmable via 3-wire SPI interface  
40-lead, 6 mm × 6 mm LFCSP  
The loop filter output is then applied to an integrated VCO. The  
VCO output at 2× fLO is applied to an LO divider, as well as to a  
programmable PLL divider. The programmable PLL divider is  
controlled by a sigma-delta modulator (SDM). The modulus of  
the SDM can be programmed from 1 to 2047.  
APPLICATIONS  
The active mixer converts the single-ended 50 Ω RF input to  
a 200 ꢀ differential IF output. The IF output can operate up  
to 500 MHz.  
Cellular base stations  
GENERAL DESCRIPTION  
The ADRF6603 is fabricated using an advanced silicon-germanium  
BiCMOS process. It is available in a 40-lead, RoHS-compliant,  
6 mm × 6 mm LFCSP with an exposed paddle. Performance is  
specified over the −40°C to +85°C temperature range.  
The ADRF6603 is a high dynamic range active mixer with  
integrated fractional-N phase-locked loop (PLL) and voltage-  
controlled oscillator (VCO) for internal mixer LO generation.  
Along with the ADRF6602, the ADRF6603 forms a family of  
integrated PLL/mixers that cover the frequency range of 2100 MHz  
to 2600 MHz.  
FUNCTIONAL BLOCK DIAGRAM  
VCC1  
1
VCC2 VCC_LO VCC_MIX VCC_V2I VCC_LO  
NC NC  
10  
17  
22  
27  
34  
32  
33  
ADRF6603  
36  
INTERNAL LO RANGE  
2100MHz TO 2600MHz  
LODRV_EN  
3.3V  
LDO  
2
9
DECL3P3  
DECL2P5  
DECLVCO  
LON 37  
BUFFER  
BUFFER  
2.5V  
LDO  
38  
LOP  
VCO  
LDO  
PLL_EN 16  
DIV  
2:1  
40  
BY  
INTEGER  
REG  
FRACTION  
REG  
MUX  
12  
13  
14  
DATA  
CLK  
LE  
MODULUS  
2, 1  
SPI  
INTERFACE  
26  
29  
RF  
THIRD-ORDER  
FRACTIONAL  
INTERPOLATOR  
IN  
VCO  
CORE  
IP3SET  
×2  
N COUNTER  
21 TO 123  
PRESCALER  
÷2  
6
8
REF_IN  
MUX  
÷2  
CHARGE PUMP  
250µA,  
500µA (DEFAULT),  
+
PHASE  
FREQUENCY  
DETECTOR  
TEMP  
SENSOR  
÷4  
750µA,  
1000µA  
5
MUXOUT  
4
7
11 15 20 21 23 24 25 28 30 31 35  
GND  
39  
18 19  
3
R
CP VTUNE IFP IFN  
SET  
Figure 1.  
Rev. 0  
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responsibility is assumed by Analog Devices for its use, nor for any infringements of patents or other  
rights of third parties that may result from its use. Specifications subject to change without notice. No  
license is granted by implication or otherwise under any patent or patent rights of Analog Devices.  
Trademarks and registeredtrademarks arethe property of their respective owners.  
One Technology Way, P.O. Box 9106, Norwood, MA 02062-9106, U.S.A.  
Tel: 781.329.4700  
Fax: 781.461.3113  
www.analog.com  
©2010 Analog Devices, Inc. All rights reserved.  
 
 
 
ADRF6603  
TABLE OF CONTENTS  
Features .............................................................................................. 1  
Register 4—PLL Charge Pump, PFD, and Reference Path  
Control (Default: 0x0AA7E4)................................................... 13  
Applications....................................................................................... 1  
General Description......................................................................... 1  
Functional Block Diagram .............................................................. 1  
Revision History ............................................................................... 2  
Specifications..................................................................................... 3  
RF Specifications .......................................................................... 3  
Synthesizer/PLL Specifications................................................... 4  
Logic Input and Power Specifications ....................................... 5  
Timing Characteristics ................................................................ 5  
Absolute Maximum Ratings............................................................ 6  
ESD Caution.................................................................................. 6  
Pin Configuration and Function Descriptions............................. 7  
Typical Performance Characteristics ............................................. 9  
Register Structure ........................................................................... 11  
Register 0—Integer Divide Control (Default: 0x0001C0)..... 11  
Register 1—Modulus Divide Control (Default: 0x003001).. 11  
Register 2—Fractional Divide Control (Default: 0x001802) 12  
Register 5—PLL Enable and LO Path Control (Default:  
0x0000E5).................................................................................... 14  
Register 6—VCO Control and VCO Enable (Default:  
0x1E2106).................................................................................... 14  
Register 7—Mixer Bias Enable and External VCO Enable  
(Default: 0x000007).................................................................... 14  
Theory of Operation ...................................................................... 15  
Programming the ADRF6603................................................... 15  
Initialization Sequence .............................................................. 15  
LO Selection Logic ..................................................................... 16  
Applications Information.............................................................. 17  
Basic Connections for Operation............................................. 17  
Evaluation Board ............................................................................ 18  
Evaluation Board Control Software......................................... 18  
Schematics and Artwork ........................................................... 20  
Evaluation Board Configuration Options............................... 22  
Outline Dimensions....................................................................... 23  
Ordering Guide .......................................................................... 23  
Register 3—Σ-Δ Modulator Dither Control (Default:  
0x10000B).................................................................................... 12  
REVISION HISTORY  
3/10—Revision 0: Initial Version  
Rev. 0 | Page 2 of 24  
 
ADRF6603  
SPECIFICATIONS  
RF SPECIFICATIONS  
VS = 5 V; ambient temperature (TA) = 25°C; fREF = 38.4 MHz; fPFD = 38.4 MHz; high-side LO injection; fIF = 140 MHz; IIP3 optimized  
using capacitor DAC (0x1) and IP3SET (3.3 V), unless otherwise noted.  
Table 2.  
Parameter  
Test Conditions/Comments  
Min  
Typ  
Max  
2600  
3200  
Unit  
MHz  
MHz  
INTERNAL LO FREQUENCY RANGE  
RF INPUT FREQUENCY RANGE  
RF INPUT AT 2140 MHz  
Iinpu Reupꢂi Loss  
2100  
1100  
3 ꢀd RF ꢁinpu ꢂaige  
Relauꢁve uo 50 Ω (cai be ꢁmnꢂoveꢀ wꢁuh exueꢂial mauch)  
−27  
14.6  
56  
ꢀd  
Iinpu P1ꢀd  
ꢀdm  
ꢀdm  
ꢀdm  
ꢀd  
ꢀd  
ꢀdm  
Secoiꢀ-Oꢂꢀeꢂ Iiueꢂcenu (IIP2)  
Thꢁꢂꢀ-Oꢂꢀeꢂ Iiueꢂcenu (IIP3)  
Sꢁigle-Sꢁꢀe daiꢀ Noꢁse Fꢁgpꢂe  
−5 ꢀdm each uoie (10 MHz snacꢁig beuweei uoies)  
−5 ꢀdm each uoie (10 MHz snacꢁig beuweei uoies)  
IP3SET = 3.3 V  
IP3SET = onei  
Au 1× LO fꢂeqpeicy, 50 Ω ueꢂmꢁiauꢁoi au uhe RF noꢂu  
28  
15.2  
14.5  
−42  
LO uo IF Leakage  
RF INPUT AT 2400 MHz  
Iinpu Reupꢂi Loss  
Iinpu P1ꢀd  
Secoiꢀ-Oꢂꢀeꢂ Iiueꢂcenu (IIP2)  
Thꢁꢂꢀ-Oꢂꢀeꢂ Iiueꢂcenu (IIP3)  
Sꢁigle-Sꢁꢀe daiꢀ Noꢁse Fꢁgpꢂe  
Relauꢁve uo 50 Ω (cai be ꢁmnꢂoveꢀ wꢁuh exueꢂial mauch)  
−16  
14.6  
55  
27.7  
15.3  
14.2  
−43  
ꢀd  
ꢀdm  
ꢀdm  
ꢀdm  
ꢀd  
ꢀd  
ꢀdm  
−5 ꢀdm each uoie (10 MHz snacꢁig beuweei uoies)  
−5 ꢀdm each uoie (10 MHz snacꢁig beuweei uoies)  
IP3SET = 3.3 V  
IP3SET = onei  
Au 1× LO fꢂeqpeicy, 50 Ω ueꢂmꢁiauꢁoi au uhe RF noꢂu  
Low sꢁꢀe Iijecuꢁoi  
LO uo IF Leakage  
RF INPUT AT 2650 MHz  
Iinpu Reupꢂi Loss  
Iinpu P1ꢀd  
Secoiꢀ-Oꢂꢀeꢂ Iiueꢂcenu (IIP2)  
Thꢁꢂꢀ-Oꢂꢀeꢂ Iiueꢂcenu (IIP3)  
Sꢁigle-Sꢁꢀe daiꢀ Noꢁse Fꢁgpꢂe  
Relauꢁve uo 50 Ω (cai be ꢁmnꢂoveꢀ wꢁuh exueꢂial mauch)  
−11  
14.6  
54  
28.0  
15.3  
14.2  
−42.5  
ꢀd  
ꢀdm  
ꢀdm  
ꢀdm  
ꢀd  
ꢀd  
ꢀdm  
−5 ꢀdm each uoie (10 MHz snacꢁig beuweei uoies)  
−5 ꢀdm each uoie (10 MHz snacꢁig beuweei uoies)  
IP3SET = 3.3 V  
IP3SET = onei  
Au 1× LO fꢂeqpeicy, 50 Ω ueꢂmꢁiauꢁoi au uhe RF noꢂu  
LO uo IF Leakage  
IF OUTPUT  
Voluage Coiveꢂsꢁoi Gaꢁi  
IF daiꢀwꢁꢀuh  
Opunpu Commoi-Moꢀe Voluage  
Gaꢁi Flauiess  
Gaꢁi Vaꢂꢁauꢁoi  
Opunpu Swꢁig  
Opunpu Reupꢂi Loss  
LO INPUT/OUTPUT (LOP, LON)  
Fꢂeqpeicy Raige  
Opunpu Level (LO as Opunpu)  
Iinpu Level (LO as Iinpu)  
Iinpu Imneꢀaice  
Dꢁffeꢂeiuꢁal 200 Ω loaꢀ  
Small-sꢁgial 3 ꢀd baiꢀwꢁꢀuh  
Exueꢂial npll-pn balpi oꢂ ꢁiꢀpcuoꢂs ꢂeqpꢁꢂeꢀ  
Oveꢂ fꢂeqpeicy ꢂaige, aiy 5 MHz/50 MHz  
Oveꢂ fpll uemneꢂaupꢂe ꢂaige  
6.9  
500  
5
0.2/1.0  
1.0  
2
ꢀd  
MHz  
V
ꢀd  
ꢀd  
Dꢁffeꢂeiuꢁal 200 Ω loaꢀ  
Relauꢁve uo 200 Ω  
V n-n  
ꢀd  
−14  
Exueꢂially annlꢁeꢀ 1× LO ꢁinpu, ꢁiueꢂial PLL ꢀꢁsableꢀ  
250  
6000  
MHz  
ꢀdm  
ꢀdm  
Ω
1× LO ꢁiuo a 50 Ω loaꢀ, LO opunpu bpffeꢂ eiableꢀ  
−7  
6
50  
Rev. 0 | Page 3 of 24  
 
ADRF6603  
SYNTHESIZER/PLL SPECIFICATIONS  
VS = 5 V; ambient temperature (TA) = 25°C; fREF = 153.6 MHz; fPFD = 38.4 MHz; high-side LO injection; fIF = 140 MHz; IIP3 optimized  
using capacitor DAC (0x1) and IP3SET (3.3 V), unless otherwise noted.  
Table 3.  
Parameter  
Test Conditions/Comments  
Min  
Typ  
Max  
Unit  
SYNTHESIZER SPECIFICATIONS  
Fꢂeqpeicy Raige  
Fꢁgpꢂe of Meꢂꢁu  
Syiuhesꢁzeꢂ snecꢁfꢁcauꢁois ꢂefeꢂeiceꢀ uo 1× LO  
Iiueꢂially geieꢂaueꢀ LO  
PREF_IN = 0 ꢀdm  
2100  
2600  
MHz  
ꢀdc/Hz  
−222  
Refeꢂeice Snpꢂs  
fREF = 153.6 MHz  
fREF/4  
fREF/2  
fREF  
> fREF  
−107  
−107  
−86  
ꢀdc  
ꢀdc  
ꢀdc  
ꢀdc  
−83  
PHASE NOISE  
fLO = 2100 MHz uo 2600 MHz, fPFD = 38.4 MHz  
1 kHz uo 10 kHz offseu  
100 kHz offseu  
−90  
ꢀdc/Hz  
ꢀdc/Hz  
ꢀdc/Hz  
ꢀdc/Hz  
ꢀdc/Hz  
ꢀdc/Hz  
ꢀdc/Hz  
°ꢂms  
−99.5  
−120  
−128  
−142  
−148  
−149  
0.4  
500 kHz offseu  
1 MHz offseu  
5 MHz offseu  
10 MHz offseu  
20 MHz offseu  
Iiuegꢂaueꢀ Phase Noꢁse  
PFD Fꢂeqpeicy  
1 kHz uo 40 MHz ꢁiuegꢂauꢁoi baiꢀwꢁꢀuh  
20  
12  
40  
MHz  
REFERENCE CHARACTERISTICS  
REF_IN Iinpu Fꢂeqpeicy  
REF_IN Iinpu Canacꢁuaice  
MUXOUT Opunpu Level  
REF_IN, MUXOUT nꢁis  
160  
0.25  
MHz  
nF  
V
V
%
4
VOL (lock ꢀeuecu opunpu selecueꢀ)  
VOH (lock ꢀeuecu opunpu selecueꢀ)  
2.7  
1
MUXOUT Dpuy Cycle  
CHARGE PUMP  
Ppmn Cpꢂꢂeiu  
50  
Pꢂogꢂammable uo 250 μA, 500 μA, 750 μA, 1 mA  
500  
ꢃA  
V
Opunpu Comnlꢁaice Raige  
2.8  
Rev. 0 | Page 4 of 24  
 
ADRF6603  
LOGIC INPUT AND POWER SPECIFICATIONS  
VS = 5 V; ambient temperature (TA) = 25°C; fREF = 38.4 MHz; fPFD = 38.4 MHz; high-side LO injection; fIF = 140 MHz; IIP3 optimized  
using capacitor DAC (0x1) and IP3SET (3.3 V), unless otherwise noted.  
Table 4.  
Parameter  
Test Conditions/Comments  
Min  
Typ  
Max  
Unit  
LOGIC INPUTS  
CLK, DATA, LE  
Iinpu Hꢁgh Voluage, VINH  
Iinpu Low Voluage, VINL  
Iinpu Cpꢂꢂeiu, IINH/IINL  
Iinpu Canacꢁuaice, CIN  
POWER SUPPLIES  
Voluage Raige  
1.4  
0
3.3  
0.7  
V
V
ꢃA  
nF  
0.1  
5
VCC1, VCC2, VCC_LO, VCC_MIX, aiꢀ VCC_V2I nꢁis  
PLL oily  
Exueꢂial LO moꢀe (ꢁiueꢂial PLL ꢀꢁsableꢀ,  
IP3SET nꢁi = 3.3 V)  
4.75  
5
98  
163  
5.25  
V
mA  
mA  
Spnnly Cpꢂꢂeiu  
Iiueꢂial LO moꢀe (ꢁiueꢂial PLL eiableꢀ,  
IP3SET nꢁi = 3.3 V)  
Poweꢂ-ꢀowi moꢀe  
261  
30  
mA  
mA  
TIMING CHARACTERISTICS  
VCC2 = 5 V 5ꢁ.  
Table 5.  
Parameter  
Limit  
20  
10  
10  
25  
25  
10  
20  
Unit  
Description  
u1  
u2  
u3  
u4  
u5  
u6  
u7  
is mꢁi  
is mꢁi  
is mꢁi  
is mꢁi  
is mꢁi  
is mꢁi  
is mꢁi  
LE seupn uꢁme  
DATA uo CLK seupn uꢁme  
DATA uo CLK holꢀ uꢁme  
CLK hꢁgh ꢀpꢂauꢁoi  
CLK low ꢀpꢂauꢁoi  
CLK uo LE seupn uꢁme  
LE nplse wꢁꢀuh  
Timing Diagram  
t4  
t5  
CLK  
t2  
t3  
DB2  
(CONTROL BIT C3)  
DB1  
(CONTROL BIT C2)  
DB0 (LSB)  
(CONTROL BIT C1)  
DB23 (MSB)  
t1  
DB22  
DATA  
LE  
t7  
t6  
Figure 2. Timing Diagram  
Rev. 0 | Page 5 of 24  
 
 
 
ADRF6603  
ABSOLUTE MAXIMUM RATINGS  
Table 6.  
Stresses above those listed under Absolute Maximum Ratings  
may cause permanent damage to the device. This is a stress  
rating only; functional operation of the device at these or any  
other conditions above those indicated in the operational  
section of this specification is not implied. Exposure to absolute  
maximum rating conditions for extended periods may affect  
device reliability.  
Parameter  
Rating  
Spnnly Voluage, VCC1, VCC2, VCC_LO,  
VCC_MIX, VCC_V2I  
−0.5 V uo +5.5 V  
Dꢁgꢁual I/O, CLK, DATA, LE  
IFP, IFN  
RFIN  
−0.3 V uo +3.6 V  
−0.3 V uo VCC + 0.3 V  
18 ꢀdm  
θJA (Exnoseꢀ Paꢀꢀle Solꢀeꢂeꢀ Dowi)  
Maxꢁmpm Jpicuꢁoi Temneꢂaupꢂe  
Oneꢂauꢁig Temneꢂaupꢂe Raige  
Suoꢂage Temneꢂaupꢂe Raige  
35°C/W  
150°C  
−40°C uo +85°C  
−65°C uo +150°C  
ESD CAUTION  
Rev. 0 | Page 6 of 24  
 
ADRF6603  
PIN CONFIGURATION AND FUNCTION DESCRIPTIONS  
PIN 1  
VCC1  
DECL3P3  
CP  
1
2
30 GND  
INDICATOR  
29 IP3SET  
28 GND  
3
GND  
27 VCC_V2I  
4
ADRF6603  
R
RF  
5
26  
25  
SET  
IN  
REF_IN  
6
GND  
TOP VIEW  
7
24 GND  
GND  
MUXOUT  
DECL2P5  
VCC2  
(Not to Scale)  
8
23 GND  
9
22 VCC_MIX  
21  
10  
GND  
NOTES  
1. NC = NO CONNECT.  
2. THE EXPOSED PADDLE SHOULD BE SOLDERED TO A  
LOW IMPEDANCE GROUND PLANE.  
Figure 3. Pin Configuration  
Table 7. Pin Function Descriptions  
Pin No.  
Mnemonic Description  
1
VCC1  
Poweꢂ Spnnly foꢂ uhe 3.3 V LDO. Poweꢂ spnnly voluage ꢂaige ꢁs 4.75 V uo 5.25 V. Each noweꢂ spnnly nꢁi  
shoplꢀ be ꢀecopnleꢀ wꢁuh a 100 nF canacꢁuoꢂ aiꢀ a 0.1 ꢃF canacꢁuoꢂ locaueꢀ close uo uhe nꢁi.  
2
3
DECL3P3  
CP  
Decopnlꢁig Noꢀe foꢂ 3.3 V LDO. Coiiecu a 0.1 ꢃF canacꢁuoꢂ beuweei uhꢁs nꢁi aiꢀ gꢂopiꢀ.  
Chaꢂge Ppmn Opunpu Pꢁi. Coiiecu uo VTUNE uhꢂopgh uhe loon fꢁlueꢂ.  
Gꢂopiꢀ. Coiiecu uhese nꢁis uo a low ꢁmneꢀaice gꢂopiꢀ nlaie.  
4, 7, 11, 15, 20, GND  
21, 23, 24, 25,  
28, 30, 31, 35  
5
RSET  
Chaꢂge Ppmn Cpꢂꢂeiu. The iomꢁial chaꢂge npmn cpꢂꢂeiu cai be seu uo 250 ꢃA, 500 ꢃA, 750 ꢃA, oꢂ 1 mA psꢁig  
dꢁu Dd11 aiꢀ dꢁu Dd10 ꢁi Regꢁsueꢂ 4 aiꢀ by seuuꢁig dꢁu Dd18 uo 0 (ꢁiueꢂial ꢂefeꢂeice cpꢂꢂeiu). Ii uhꢁs moꢀe,  
io exueꢂial RSET ꢁs ꢂeqpꢁꢂeꢀ. If dꢁu Dd18 ꢁs seu uo 1, uhe fopꢂ iomꢁial chaꢂge npmn cpꢂꢂeius (INOMINAL) cai be  
exueꢂially aꢀjpsueꢀ accoꢂꢀꢁig uo uhe followꢁig eqpauꢁoi:  
217.4 × I  
CP  
RSET  
=
37.8 Ω  
INOMINAL  
6
8
REF_IN  
MUXOUT  
Refeꢂeice Iinpu. Nomꢁial ꢁinpu level ꢁs 1 V n-n. Iinpu ꢂaige ꢁs 12 MHz uo 160 MHz.  
Mpluꢁnlexeꢂ Opunpu. Thꢁs opunpu cai be nꢂogꢂammeꢀ uo nꢂovꢁꢀe uhe ꢂefeꢂeice opunpu sꢁgial oꢂ uhe lock ꢀeuecu  
sꢁgial. The opunpu ꢁs selecueꢀ by nꢂogꢂammꢁig uhe annꢂonꢂꢁaue ꢂegꢁsueꢂ.  
9
10  
DECL2P5  
VCC2  
Decopnlꢁig Noꢀe foꢂ 2.5 V LDO. Coiiecu a 0.1 ꢃF canacꢁuoꢂ beuweei uhꢁs nꢁi aiꢀ gꢂopiꢀ.  
Poweꢂ Spnnly foꢂ uhe 2.5 V LDO. Poweꢂ spnnly voluage ꢂaige ꢁs 4.75 V uo 5.25 V. Each noweꢂ spnnly nꢁi  
shoplꢀ be ꢀecopnleꢀ wꢁuh a 100 nF canacꢁuoꢂ aiꢀ a 0.1 ꢃF canacꢁuoꢂ locaueꢀ close uo uhe nꢁi.  
12  
13  
DATA  
CLK  
Seꢂꢁal Daua Iinpu. The seꢂꢁal ꢀaua ꢁinpu ꢁs loaꢀeꢀ MSd fꢁꢂsu; uhe uhꢂee LSds aꢂe uhe coiuꢂol bꢁus.  
Seꢂꢁal Clock Iinpu. The seꢂꢁal clock ꢁinpu ꢁs pseꢀ uo clock ꢁi uhe seꢂꢁal ꢀaua uo uhe ꢂegꢁsueꢂs. The ꢀaua ꢁs laucheꢀ  
ꢁiuo uhe 24-bꢁu shꢁfu ꢂegꢁsueꢂ oi uhe CLK ꢂꢁsꢁig eꢀge. Maxꢁmpm clock fꢂeqpeicy ꢁs 20 MHz.  
14  
16  
LE  
Loaꢀ Eiable. Whei uhe LE ꢁinpu nꢁi goes hꢁgh, uhe ꢀaua suoꢂeꢀ ꢁi uhe shꢁfu ꢂegꢁsueꢂs ꢁs loaꢀeꢀ ꢁiuo oie of uhe  
eꢁghu ꢂegꢁsueꢂs. The ꢂelevaiu lauch ꢁs selecueꢀ by uhe uhꢂee coiuꢂol bꢁus of uhe 24-bꢁu woꢂꢀ.  
PLL Eiable. Swꢁuch beuweei ꢁiueꢂial PLL aiꢀ exueꢂial LO ꢁinpu. Whei uhꢁs nꢁi ꢁs logꢁc hꢁgh, uhe mꢁxeꢂ LO ꢁs  
apuomauꢁcally swꢁucheꢀ uo uhe ꢁiueꢂial PLL aiꢀ uhe ꢁiueꢂial PLL ꢁs noweꢂeꢀ pn. Whei uhꢁs nꢁi ꢁs logꢁc low, uhe  
ꢁiueꢂial PLL ꢁs noweꢂeꢀ ꢀowi aiꢀ uhe exueꢂial LO ꢁinpu ꢁs ꢂopueꢀ uo uhe mꢁxeꢂ LO ꢁinpus. The SPI cai also be  
pseꢀ uo swꢁuch moꢀes.  
PLL_EN  
17, 34  
VCC_LO  
Poweꢂ Spnnly. Poweꢂ spnnly voluage ꢂaige ꢁs 4.75 V uo 5.25 V. Each noweꢂ spnnly nꢁi shoplꢀ be ꢀecopnleꢀ  
wꢁuh a 100 nF canacꢁuoꢂ aiꢀ a 0.1 ꢃF canacꢁuoꢂ locaueꢀ close uo uhe nꢁi.  
18, 19  
22  
IFP, IFN  
VCC_MIX  
Mꢁxeꢂ IF Opunpus. These opunpus shoplꢀ be nplleꢀ uo VCC wꢁuh RF chokes.  
Poweꢂ Spnnly. Poweꢂ spnnly voluage ꢂaige ꢁs 4.75 V uo 5.25 V. Each noweꢂ spnnly nꢁi shoplꢀ be ꢀecopnleꢀ  
wꢁuh a 100 nF canacꢁuoꢂ aiꢀ a 0.1 ꢃF canacꢁuoꢂ locaueꢀ close uo uhe nꢁi.  
26  
RFIN  
RF Iinpu (Sꢁigle-Eiꢀeꢀ, 50 Ω).  
Rev. 0 | Page 7 of 24  
 
ADRF6603  
Pin No.  
Mnemonic Description  
27  
VCC_V2I  
Poweꢂ Spnnly. Poweꢂ spnnly voluage ꢂaige ꢁs 4.75 V uo 5.25 V. Each noweꢂ spnnly nꢁi shoplꢀ be ꢀecopnleꢀ  
wꢁuh a 100 nF canacꢁuoꢂ aiꢀ a 0.1 ꢃF canacꢁuoꢂ locaueꢀ close uo uhe nꢁi.  
Coiiecu a ꢂesꢁsuoꢂ fꢂom uhꢁs nꢁi uo a +5 V spnnly uo aꢀjpsu IIP3. Noꢂmally leave onei.  
No Coiiecuꢁoi.  
29  
32, 33  
36  
IP3SET  
NC  
LODRV_EN LO Dꢂꢁveꢂ Eiable. Togeuheꢂ wꢁuh Pꢁi 16 (PLL_EN), uhꢁs ꢀꢁgꢁual ꢁinpu nꢁi ꢀeueꢂmꢁies wheuheꢂ uhe LOP aiꢀ LON  
nꢁis oneꢂaue as ꢁinpus oꢂ opunpus. LOP aiꢀ LON become ꢁinpus ꢁf uhe PLL_EN nꢁi ꢁs low oꢂ ꢁf uhe PLL_EN nꢁi  
ꢁs seu hꢁgh wꢁuh uhe PLEN bꢁu (Dd6 ꢁi Regꢁsueꢂ 5) seu uo 0. LOP aiꢀ LON become opunpus ꢁf eꢁuheꢂ uhe LODRV_EN  
nꢁi oꢂ uhe LDRV bꢁu (Dd3 ꢁi Regꢁsueꢂ 5) ꢁs seu uo 1 whꢁle uhe PLL_EN nꢁi ꢁs seu hꢁgh. The exueꢂial LO ꢀꢂꢁve  
fꢂeqpeicy mpsu be 1× LO. Thꢁs nꢁi shoplꢀ iou be lefu floauꢁig.  
37, 38  
39  
LON, LOP  
Local Oscꢁllauoꢂ Iinpu/Opunpu. The ꢁiueꢂially geieꢂaueꢀ 1× LO ꢁs avaꢁlable oi uhese nꢁis. Whei ꢁiueꢂial LO  
geieꢂauꢁoi ꢁs ꢀꢁsableꢀ, ai exueꢂial 1× LO cai be annlꢁeꢀ uo uhese nꢁis.  
VCO Coiuꢂol Voluage Iinpu. Thꢁs nꢁi ꢁs ꢀꢂꢁvei by uhe opunpu of uhe loon fꢁlueꢂ. The iomꢁial ꢁinpu voluage  
ꢂaige oi uhꢁs nꢁi ꢁs 1.5 V uo 2.5 V.  
VTUNE  
40  
EP  
DECLVCO  
EPAD  
Decopnlꢁig Noꢀe foꢂ VCO LDO. Coiiecu a 100 nF canacꢁuoꢂ aiꢀ a 10 ꢃF canacꢁuoꢂ beuweei uhꢁs nꢁi aiꢀ gꢂopiꢀ.  
Exnoseꢀ Paꢀꢀle. The exnoseꢀ naꢀꢀle shoplꢀ be solꢀeꢂeꢀ uo a low ꢁmneꢀaice gꢂopiꢀ nlaie.  
Rev. 0 | Page 8 of 24  
ADRF6603  
TYPICAL PERFORMANCE CHARACTERISTICS  
CDAC = 0x1, IP3SET = 3.3 V, internally generated LO, RFIN = −10 dBm, fIF = 140 MHz, unless otherwise noted.  
45  
40  
35  
30  
25  
20  
15  
10  
5
5
4
–40°C  
+25°C  
+85°C  
–40°C  
+25°C  
+85°C  
3
2
1
0
–1  
–2  
–3  
–4  
–5  
2100 2150 2200 2250 2300 2350 2400 2450 2500 2550 2600  
2100 2150 2200 2250 2300 2350 2400 2450 2500 2550 2600  
LO FREQUENCY (MHz)  
LO FREQUENCY (MHz)  
Figure 4. Gain vs. LO Frequency  
Figure 7. IIP3 vs. LO Frequency, RFIN = −5 dBm  
90  
20  
–40°C  
+25°C  
+85°C  
–40°C  
+25°C  
+85°C  
18  
16  
14  
12  
10  
8
80  
70  
60  
50  
40  
30  
6
4
2
0
2100 2150 2200 2250 2300 2350 2400 2450 2500 2550 2600  
2100 2150 2200 2250 2300 2350 2400 2450 2500 2550 2600  
LO FREQUENCY (MHz)  
LO FREQUENCY (MHz)  
Figure 5. IIP2 vs. LO Frequency, RFIN = −5 dBm  
Figure 8. IP1dB vs. LO Frequency  
20  
0
19  
18  
17  
16  
15  
14  
13  
12  
11  
10  
–40°C  
–40°C  
+25°C  
+85°C  
–10  
+25°C  
+85°C  
–20  
–30  
–40  
–50  
–60  
2100 2150 2200 2250 2300 2350 2400 2450 2500 2550 2600  
2100 2150 2200 2250 2300 2350 2400 2450 2500 2550 2600  
LO FREQUENCY (MHz)  
LO FREQUENCY (MHz)  
Figure 6. Noise Figure vs. LO Frequency  
Figure 9. LO Feedthrough to IF vs. LO Frequency, LO Output Turned Off  
Rev. 0 | Page 9 of 24  
 
ADRF6603  
Phase noise measurements made at IF output, unless otherwise noted.  
–80  
1.0  
0.9  
0.8  
0.7  
0.6  
0.5  
0.4  
0.3  
0.2  
0.1  
0
–80  
–90  
1kHz OFFSET  
–90  
–100  
–110  
–120  
–130  
–140  
–150  
–160  
–100  
–110  
–120  
–130  
–140  
–150  
–160  
100kHz OFFSET  
10kHz OFFSET  
LO = 2115.2MHz  
LO = 2211.2MHz  
LO = 2307.2MHz  
LO = 2403.2MHz  
LO = 2499.2MHz  
LO = 2595.2MHz  
1MHz OFFSET  
INTERGRATED PHASE NOISE  
10MHz OFFSET  
2100  
2200  
2300  
2400  
2500  
2600  
1k  
10k  
100k  
1M  
10M  
100M  
LO FREQUENCY (MHz)  
OFFSET FREQUENCY (Hz)  
Figure 10. PLL Spot Phase Noise at Various Offsets  
and Integrated Phase Noise vs. LO Frequency  
Figure 12. Phase Noise vs. Offset Frequency and LO Frequency  
(LO Frequency Varies from 2100 MHz to 2600 MHz)  
–75  
–80  
2× PFD OFFSET  
–85  
–90  
1× PFD OFFSET  
4× PFD OFFSET  
–95  
–100  
–105  
–110  
0.25× AND  
0.5× PFD OFFSET  
2100  
2200  
2300  
2400  
2500  
2600  
LO FREQUENCY (MHz)  
Figure 11. PLL Reference Spurs vs. LO Frequency  
Rev. 0 | Page 10 of 24  
ADRF6603  
REGISTER STRUCTURE  
This section provides the register maps for the ADRF6603. The three LSBs determine the register that is programmed.  
REGISTER 0—INTEGER DIVIDE CONTROL (DEFAULT: 0x0001C0)  
DIVIDE  
MODE  
RESERVED  
INTEGER DIVIDE RATIO  
CONTROL BITS  
DB23 DB22 DB21 DB20 DB19 DB18 DB17 DB16 DB15 DB14 DB13 DB12 DB11 DB10  
DB9 DB8 DB7 DB6 DB5 DB4 DB3 DB2 DB1 DB0  
ID6 ID5 ID4 ID3 ID2 ID1 ID0 C3(0) C2(0) C1(0)  
0
0
0
0
0
0
0
0
0
0
0
0
0
DM  
DM  
0
DIVIDE MODE  
FRACTIONAL (DEFAULT)  
INTEGER  
1
INTEGER DIVIDE RATIO  
ID6  
0
ID5  
0
ID4  
1
ID3  
0
ID2  
1
ID1  
0
ID0  
21 (INTEGER MODE ONLY)  
1
0
22 (INTEGER MODE ONLY)  
0
0
1
0
1
1
23 (INTEGER MODE ONLY)  
0
0
1
0
1
1
1
24  
0
0
1
1
0
0
0
...  
...  
...  
0
...  
...  
1
...  
...  
1
...  
...  
1
...  
...  
0
...  
...  
0
...  
...  
0
...  
56 (DEFAULT)  
...  
...  
...  
1
...  
...  
1
...  
...  
1
...  
...  
0
...  
...  
1
...  
...  
1
...  
...  
1
...  
119  
120 (INTEGER MODE ONLY)  
121 (INTEGER MODE ONLY)  
122 (INTEGER MODE ONLY)  
123 (INTEGER MODE ONLY)  
1
1
1
1
0
0
0
1
1
1
1
0
0
1
1
1
1
1
0
1
0
1
1
1
1
0
1
1
Figure 13. Register 0—Integer Divide Control Register Map  
REGISTER 1—MODULUS DIVIDE CONTROL (DEFAULT: 0x003001)  
RESERVED  
DB23 DB22 DB21 DB20 DB19 DB18 DB17 DB16 DB15 DB14 DB13 DB12 DB11 DB10 DB9 DB8 DB7 DB6 DB5 DB4 DB3 DB2 DB1 DB0  
MD10 MD9 MD8 MD7 MD6 MD5 MD4 MD3 MD2 MD1 MD0 C3(0) C2(0) C1(1)  
MODULUS VALUE  
CONTROL BITS  
0
0
0
0
0
0
0
0
0
0
MD10 MD9 MD8 MD7 MD6 MD5 MD4 MD3 MD2 MD1 MD0  
MODULUS VALUE  
1
0
0
0
0
0
0
0
0
0
0
1
2
0
0
0
0
0
0
0
0
0
1
0
...  
...  
...  
1
...  
...  
1
...  
...  
0
...  
...  
0
...  
...  
0
...  
...  
0
...  
...  
0
...  
...  
0
...  
...  
0
...  
...  
0
...  
...  
0
...  
1536 (DEFAULT)  
...  
...  
...  
1
...  
...  
1
...  
...  
1
...  
...  
1
...  
...  
1
...  
...  
1
...  
...  
1
...  
...  
1
...  
...  
1
...  
...  
1
...  
...  
1
...  
2047  
Figure 14. Register 1—Modulus Divide Control Register Map  
Rev. 0 | Page 11 of 24  
 
 
ADRF6603  
REGISTER 2—FRACTIONAL DIVIDE CONTROL (DEFAULT: 0x001802)  
CONTROL BITS  
RESERVED  
FRACTIONAL VALUE  
DB23 DB22 DB21 DB20 DB19 DB18 DB17 DB16 DB15 DB14 DB13 DB12 DB11 DB10 DB9 DB8 DB7 DB6 DB5 DB4 DB3  
DB2 DB1 DB0  
0
0
0
0
0
0
0
0
0
0
FD10 FD9 FD8 FD7 FD6 FD5 FD4 FD3 FD2 FD1 FD0 C3(0) C2(1) C1(0)  
FRACTIONAL VALUE  
FD10  
0
FD9  
0
FD8  
0
FD7  
0
FD6  
0
FD5  
0
FD4  
0
FD3  
0
FD2  
0
FD1  
0
FD0  
0
0
1
0
0
0
0
0
0
0
0
0
0
1
...  
...  
...  
0
...  
...  
1
...  
...  
1
...  
...  
0
...  
...  
0
...  
...  
0
...  
...  
0
...  
...  
0
...  
...  
0
...  
...  
0
...  
...  
0
...  
768 (DEFAULT)  
...  
...  
...  
...  
...  
...  
...  
...  
...  
...  
...  
...  
...  
...  
...  
...  
...  
...  
...  
...  
...  
...  
...  
...  
FRACTIONAL VALUE MUST BE LESS THAN MODULUS  
<MDR  
Figure 15. Register 2—Fractional Divide Control Register Map  
REGISTER 3—Σ-Δ MODULATOR DITHER CONTROL (DEFAULT: 0x10000B)  
DITHER  
MAGNITUDE  
DITHER  
ENABLE  
DITHER RESTART VALUE  
CONTROL BITS  
DB23 DB22  
DITH1  
DB21  
DB20 DB19 DB18 DB17 DB16 DB15 DB14 DB13 DB12 DB11 DB10 DB9 DB8 DB7 DB6 DB5 DB4 DB3 DB2 DB1 DB0  
0
DITH0  
DEN  
DV16 DV15 DV14 DV13 DV12 DV11 DV10 DV9 DV8 DV7 DV6 DV5 DV4 DV3 DV2 DV1 DV0 C3(0) C2(1) C1(1)  
DITH1  
DITH0 DITHER MAGNITUDE  
0
0
0
1
15 (DEFAULT)  
7
1
1
0
1
3
1 (RECOMMENDED)  
DEN DITHER ENABLE  
0
1
DISABLE  
ENABLE (DEFAULT, RECOMMENDED)  
DITHER RESTART  
VALUE  
DV16 DV15 DV14 DV13 DV12 DV11 DV10 DV9 DV8 DV7 DV6 DV5 DV4 DV3 DV2 DV1 DV0  
0x00001 (DEFAULT)  
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
1
...  
...  
1
...  
...  
1
...  
...  
1
...  
...  
1
...  
...  
1
...  
...  
1
...  
...  
1
...  
...  
1
...  
...  
1
...  
...  
1
...  
...  
1
...  
...  
1
...  
...  
1
...  
...  
1
...  
...  
1
...  
...  
1
...  
...  
1
...  
...  
0x1FFFF  
Figure 16. Register 3—Σ-Δ Modulator Dither Control Register Map  
Rev. 0 | Page 12 of 24  
 
 
ADRF6603  
REGISTER 4—PLL CHARGE PUMP, PFD, AND REFERENCE PATH CONTROL (DEFAULT: 0x0AA7E4)  
CP  
PFD ANTI  
REF OUPUT  
MUX SELECT  
INPUT REF  
PATH  
PFD  
POL  
PFD PHASE OFFSET  
MULTIPLIER  
CP  
CP  
CP  
CURRENT  
REF  
PFD EDGE BACKLASH  
CONTROL BITS  
CURRENT SRC CONTROL  
DELAY  
SOURCE  
DB23 DB22 DB21 DB20 DB19  
RMS2 RMS1 RMS0 RS1 RS0  
DB18  
CPM  
DB17 DB16 DB15 DB14 DB13 DB12 DB11 DB10 DB9 DB8 DB7 DB6 DB5 DB4 DB3 DB2 DB1 DB0  
CPBD CPB4 CPB3 CPB2 CPB1 CPB0 CPP1 CPP0 CPS CPC1 CPC0 PE1 PE0 PAB1 PAB0 C3(1) C2(0) C1(0)  
PFD ANTI BACKLASH  
PAB0 PAB1  
DELAY  
0
0
1
1
0
1
0
1
0ns (DEFAULT)  
0.5ns  
0.75ns  
0.9ns  
REFERENCE PATH EDGE  
SENSITIVITY  
PE0  
0
1
FALLING EDGE  
RISING EDGE (DEFAULT)  
DIVIDER PATH EDGE  
SENSITIVITY  
PE1  
0
1
FALLING EDGE  
RISING EDGE (DEFAULT)  
CHARGE PUMP CONTROL  
CPC1 CPC0  
BOTH ON  
PUMP DOWN  
PUMP UP  
0
0
1
1
0
1
0
1
TRISTATE (DEFAULT)  
CPS CHARGE PUMP CONTROL SOURCE  
0
1
CONTROL BASED ON STATE OF DB7/DB8 (CP CONTROL)  
CONTROL FROM PFD (DEFAULT)  
CPP1 CPP0 CHARGE PUMP CURRENT  
250µA  
500µA (DEFAULT)  
750µA  
0
0
1
1
0
1
0
1
1000µA  
PFD PHASE OFFSET MULTIPLIER  
CPB4 CPB3 CPB2 CPB1 CPB0  
0 × 22.5°/I  
CPMULT  
0
0
0
0
1
1
0
0
0
1
0
1
0
0
1
0
0
1
0
0
1
1
0
1
0
1
0
0
0
1
1 × 22.5°/I  
CPMULT  
6 × 22.5°/I  
CPMULT  
(RECOMMENDED)  
(DEFAULT)  
10 × 22.5°/I  
16 × 22.5°/I  
31 × 22.5°/I  
CPMULT  
CPMULT  
CPMULT  
CPBD PFD PHASE OFFSET POLARITY  
0
1
NEGATIVE  
POSITIVE (DEFAULT)  
CHARGE PUMP CURRENT  
REFERENCE SOURCE  
CPM  
INTERNAL (DEFAULT)  
EXTERNAL  
0
1
INPUT REFERENCE  
PATH SOURCE  
RS0 RS1  
2× REFIN  
REFIN (DEFAULT)  
0.5× REFIN  
0
0
1
1
0
1
0
1
0.25× REFIN  
RMS2 RMS1 RMS0 REF OUTPUT MUX SELECT  
LOCK DETECT (DEFAULT)  
VPTAT  
REFIN (BUFFERED)  
0.5× REFIN (BUFFERED)  
2× REFIN (BUFFERED)  
TRISTATE  
0
0
0
0
1
1
1
1
0
0
1
1
0
0
1
1
0
1
0
1
0
1
0
1
RESERVED  
RESERVED  
Figure 17. Register 4—PLL Charge Pump, PFD, and Reference Path Control Register Map  
Rev. 0 | Page 13 of 24  
 
ADRF6603  
REGISTER 5—PLL ENABLE AND LO PATH CONTROL (DEFAULT: 0x0000E5)  
PLL  
EN  
LO  
DIV1  
LO  
EXT  
LO  
DRV  
CAP DAC  
RES  
CONTROL BITS  
RESERVED  
DB23 DB22 DB21 DB20 DB19 DB18 DB17 DB16 DB15 DB14 DB13 DB12 DB11 DB10 DB9 DB8 DB7  
DB6  
DB5  
DB4  
LXL  
DB3 DB2 DB1 DB0  
LDRV C3(1) C2(0) C1(1)  
0
0
0
0
0
0
0
0
0
0
0
0
CD3 CD2 CD1 CD0  
CAPACITOR DAC  
0
PLEN LDV1  
LO OUTPUT DRIVER  
LDRV  
CD3  
CD2  
CD1  
CD0 CONTROL FOR IIP3  
OPTIMIZATION  
ENABLE  
DRIVER OFF (DEFAULT)  
DRIVER ON  
0
1
MIN  
MAX  
0
1
0
1
0
1
0
1
EXTERNAL LO DRIVE  
ENABLE (PIN 37, PIN 38)  
LXL  
INTERNAL LO OUTPUT (DEFAULT)  
EXTERNAL LO INPUT  
0
1
LDV1 DIVIDE-BY-2 IN LO CHAIN ENABLE  
DIVIDE BY 1  
DIVIDE BY 2 (DEFAULT)  
0
1
PLEN PLL ENABLE  
DISABLE  
ENABLE (DEFAULT)  
0
1
Figure 18. Register 5—PLL Enable and LO Path Control Register Map  
REGISTER 6—VCO CONTROL AND VCO ENABLE (DEFAULT: 0x1E2106)  
CHARGE  
PUMP  
3.3V  
LDO  
VCO  
BW SW  
CTRL  
VCO LDO VCO  
VCO  
CONTROL BITS  
DB8 DB7 DB6 DB5 DB4 DB3 DB2 DB1 DB0  
VCO BAND SELECT FROM SPI  
RESERVED  
VCO AMPLITUDE  
ENABLE ENABLE SWITCH  
ENABLE ENABLE  
DB23 DB22 DB21 DB20  
DB19  
L3EN  
DB18  
DB17  
DB16 DB15 DB14 DB13 DB12 DB11 DB10  
DB9  
0
0
0
CPEN  
LVEN VCO EN VCO SW VC5 VC4 VC3 VC2 VC1 VC0 VBSRC VBS5 VBS4 VBS3 VBS2 VBS1 VBS0 C3(1) C2(1) C1(0)  
CHARGE PUMP ENABLE  
CPEN  
VC[5:0] VCO AMPLITUDE  
VBS[5:0] VCO BAND SELECT FROM SPI  
DISABLE  
ENABLE (DEFAULT)  
0x00  
….  
0
0x00  
0x01  
0
1
….  
DEFAULT 0x20  
….  
0x18  
….  
0x2B  
….  
24 (DEFAULT)  
….  
43  
….  
0x3F  
L3EN 3.3V LDO ENABLE  
VBSRC VCO BW CAL AND SW SOURCE CONTROL  
0
1
DISABLE  
ENABLE (DEFAULT)  
0x3F  
63 (RECOMMENDED)  
0
1
BAND CAL (DEFAULT)  
SPI  
VCO SW VCO SWITCH CONTROL FROM SPI  
LVEN VCO LDO ENABLE  
REGULAR (DEFAULT)  
BAND CAL  
0
1
0
1
DISABLE  
ENABLE (DEFAULT)  
VCO EN VCO ENABLE  
0
1
DISABLE  
ENABLE (DEFAULT)  
Figure 19. Register 6—VCO Control and VCO Enable Register Map  
REGISTER 7—MIXER BIAS ENABLE AND EXTERNAL VCO ENABLE (DEFAULT: 0x000007)  
MIXER  
B_EN  
RESERVED  
CONTROL BITS  
RES XVCO  
DB23 DB22 DB21 DB20 DB19 DB18 DB17 DB16 DB15 DB14 DB13 DB12 DB11 DB10 DB9 DB8 DB7 DB6 DB5 DB4 DB3 DB2 DB1 DB0  
XVCO MBE C3(1) C2(1) C1(1)  
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
MBE MIXER BIAS ENABLE  
DISABLE  
ENABLE (DEFAULT)  
0
1
EXTERNAL VCO  
XVCO  
INTERNAL VCO (DEFAULT)  
EXTERNAL VCO  
0
1
Figure 20. Register 7—Mixer Bias Enable and External VCO Enable Register Map  
Rev. 0 | Page 14 of 24  
 
 
 
 
ADRF6603  
THEORY OF OPERATION  
The ADRF6603 integrates a high performance downconverting  
mixer with a state-of-the-art fractional-N PLL. The PLL also inte-  
grates a low noise VCO. The SPI port allows the user to control the  
fractional-N PLL functions and the mixer optimization functions,  
as well as allowing for an externally applied LO or VCO.  
Table 8. ADRF6603 Register Functions  
Register  
Function  
Regꢁsueꢂ 0  
Regꢁsueꢂ 1  
Regꢁsueꢂ 2  
Regꢁsueꢂ 3  
Regꢁsueꢂ 4  
Regꢁsueꢂ 5  
Regꢁsueꢂ 6  
Regꢁsueꢂ 7  
Iiuegeꢂ ꢀꢁvꢁꢀe coiuꢂol foꢂ uhe PLL  
Moꢀplps ꢀꢁvꢁꢀe coiuꢂol foꢂ uhe PLL  
Fꢂacuꢁoial ꢀꢁvꢁꢀe coiuꢂol foꢂ uhe PLL  
Σ-Δ moꢀplauoꢂ ꢀꢁuheꢂ coiuꢂol  
PLL chaꢂge npmn, PFD, ꢂefeꢂeice nauh coiuꢂol  
PLL eiable aiꢀ LO nauh coiuꢂol  
The mixer core within the ADRF6603 is the next generation of  
an industry leading family of mixers from Analog Devices, Inc.  
The RF input is converted to a current and then mixed down to  
IF using high performance NPN transistors. The mixer output  
currents are transformed to a differential output. The high perfor-  
mance active mixer core results in an exceptional IIP3 and IP1dB,  
with a very low output noise floor for excellent dynamic range.  
Over the specified frequency range, the ADRF6603 typically  
provides an IF input P1dB of 14.6 dBm and an IIP3 of 27 dBm.  
VCO coiuꢂol aiꢀ VCO eiable  
Mꢁxeꢂ bꢁas eiable aiꢀ exueꢂial VCO eiable  
Note that internal calibration for the PLL must be run when the  
ADRF6603 is initialized at a given frequency. This calibration is  
run automatically whenever Register 0, Register 1, or Register 2 is  
programmed. Because the other registers affect PLL performance,  
Register 0, Register 1, and Register 2 should always be programmed  
last and in this order: Register 0, Register 1, Register 2.  
Improved performance at specific frequencies can be achieved  
with the use of the internal capacitor DAC (CDAC), which is  
programmable via the SPI port, and through the use of a resistor  
to a +5 V supply from the IP3SET pin (Pin 29). Adjustment of  
the capacitor DAC allows increments in phase shift at internal  
nodes in the ADRF6603, thus allowing cancellation of third-  
order distortion with no change in supply current. Connecting  
a resistor to a +5 V supply from the IP3SET pin increases the  
internal mixer core current, thereby improving overall IIP2 and  
IIP3, as well as IP1dB. Using the IP3SET pin for this purpose  
increases the overall supply current.  
To program the frequency of the ADRF6603, the user typically  
programs only Register 0, Register 1, and Register 2. However,  
if registers other than these are programmed first, a short delay  
should be inserted before programming Register 0. This delay  
ensures that the VCO band calibration has sufficient time to com-  
plete before the final band calibration for Register 0 is initiated.  
Software is available on the product page of the Analog Devices  
website (www.analog.com) that allows easy programming from  
a PC running Windows XP or Vista.  
The fractional divide function of the PLL allows the frequency  
multiplication value from REF_IN to LO output to be a frac-  
tional value rather than be restricted to an integer value as  
in traditional PLLs. In operation, this multiplication value is  
INT + (FRAC/MOD), where INT is the integer value, FRAC  
is the fractional value, and MOD is the modulus value, all  
programmable via the SPI port. In other fractional-N PLL  
designs, fractional multiplication is achieved by periodically  
changing the fractional value in a deterministic way. The  
disadvantage of this approach is often spurious components  
close to the fundamental signal. In the ADRF6603, a Σ-Δ  
modulator is used to distribute the fractional value randomly,  
thus significantly reducing the spurious content due to the  
fractional function.  
INITIALIZATION SEQUENCE  
To ensure proper power-up of the ADRF6603, it is important to  
reset the PLL circuitry after the VCC supply rail settles to 5 V  
0.25 V. Resetting the PLL ensures that the internal bias cells are  
properly configured, even under poor supply start-up conditions.  
To ensure that the PLL is reset after power-up, follow this  
procedure:  
1. Disable the PLL by setting the PLEN bit to 0 (Register 5,  
Bit DB6).  
2. Disable the VCO LDO internal node by setting the LVEN  
bit to 0 (Register 6, Bit DB18).  
3. After a delay of >100 ms, set the PLEN and LVEN bits to 1.  
PROGRAMMING THE ADRF6603  
After this procedure, the other registers can be programmed, in  
order, from Register 7 to Register 3, and then from Register 0 to  
Register 2, as described in the Programming the ADRF6603  
section.  
The ADRF6603 is programmed via a 3-pin SPI port. The timing  
requirements for the SPI port are shown in Figure 2. Eight pro-  
grammable registers, each with 24 bits, control the operation of  
the device. The register functions are listed in Table 8.  
Rev. 0 | Page 15 of 24  
 
 
 
 
 
ADRF6603  
The operation of the LO generation and whether LOP and LON  
are inputs or outputs are determined by the logic levels applied  
at Pin 16 (PLL_EN) and Pin 36 (LODRV_EN), as well as Bit DB3  
(LDRV) and Bit DB6 (PLEN) in Register 5. The combination of  
externally applied logic and internal bits required for particular  
LO functions is given in Table 9.  
LO SELECTION LOGIC  
The downconverting mixer in the ADRF6603 can be used  
without the internal PLL by applying an external differential  
LO to Pin 37 and Pin 38 (LON and LOP). In addition, when  
using an LO generated by the internal PLL, the LO signal can  
be accessed directly at these same pins. This function can be  
used for debugging purposes, or the internally generated LO  
can be used as the LO for a separate mixer.  
Table 9. LO Selection Logic  
Pins1  
Register 5 Bits1  
Outputs  
LO  
Pin 16 (PLL_EN)  
Pin 36 (LODRV_EN) Bit DB6 (PLEN)  
Bit DB3 (LDRV)  
Output Buffer  
Dꢁsableꢀ  
Dꢁsableꢀ  
Dꢁsableꢀ  
Dꢁsableꢀ  
Eiableꢀ  
0
0
1
1
1
1
X
X
X
0
X
1
0
1
0
1
1
1
X
X
X
0
1
X
Exueꢂial  
Exueꢂial  
Exueꢂial  
Iiueꢂial  
Iiueꢂial  
Iiueꢂial  
Eiableꢀ  
1 X = ꢀoi’u caꢂe.  
Rev. 0 | Page 16 of 24  
 
 
 
 
 
ADRF6603  
APPLICATIONS INFORMATION  
shown in Figure 21. The reference signal, or a divided-down  
version of the reference signal, can be brought back off chip at  
the multiplexer output pin (MUXOUT). A lock detect signal  
and a voltage proportional to the ambient temperature can also  
be selected on the multiplexer output pin.  
BASIC CONNECTIONS FOR OPERATION  
Figure 21 shows the schematic for the ADRF6603 evaluation  
board. The six power supply pins should be individually  
decoupled using 100 pF and 0.1 μF capacitors located as  
close as possible to the device. In addition, the internal decou-  
pling nodes (DECL3P3, DECL2P5, and DECLVCO) should  
be decoupled with the capacitor values shown in Figure 21.  
The loop filter is connected between the CP and VTUNE pins.  
When connected in this way, the internal VCO is operational.  
For information about the loop filter components, see the  
Evaluation Board Configuration Options section.  
The RF input is internally ac-coupled and needs no external  
bias. The IF outputs are open collector, and a bias inductor  
is required from these outputs to VCC.  
Operation with an external VCO is also possible. In this case,  
the loop filter components should be referred to ground. The  
output of the loop filter is connected to the input voltage pin of  
the external VCO. The output of the VCO is brought back into  
the device on the LOP and LON pins, using a balun if necessary.  
A peak-to-peak differential swing on RFIN of 1 V (0.353 V rms  
for a sine wave input) results in an IF output power of 4.7 dBm.  
The reference frequency for the PLL should be from 12 MHz  
to 160 MHz and should be applied to the REF_IN pin, which  
should be ac-coupled and terminated with a 50 ꢀ resistor as  
P1  
9-PIN  
DSUB  
1
2
3
4
5
6
7
8
9
VCC  
R36  
R19  
0  
R35  
R30  
0Ω  
R43  
0Ω  
0Ω  
(0402)  
R20  
0Ω  
10kΩ  
(0402)  
(0402) (0402)  
R48  
(0402)  
0Ω  
(0402)  
(0402)  
S2  
R47  
10kΩ  
(0402)  
C31  
OPEN  
(0402)  
R44  
OPEN  
(0402)  
VCC  
RED  
+5V  
C32  
OPEN  
(0402)  
R45  
OPEN  
(0402)  
C7  
0.1µF  
(0402)  
C27  
0.1µF  
(0402)  
C25  
0.1µF  
(0402)  
C23  
0.1µF  
(0402)  
C20  
0.1µF  
(0402)  
C19  
0.1µF  
(0402)  
R6  
R27  
R26  
R25  
R24  
R17  
VCC1  
RED  
R39  
OPEN  
(0402)  
C30  
OPEN  
(0402)  
R42  
OPEN  
(0402)  
0Ω  
0Ω  
0Ω  
0Ω  
0Ω  
0Ω  
(0402)  
C8  
(0402)  
(0402)  
(0402)  
(0402)  
(0402)  
C26  
C24  
C22  
C21  
C18  
100pF  
(0402)  
100pF  
100pF  
100pF  
100pF  
100pF  
(0402)  
(0402)  
(0402)  
(0402)  
(0402)  
S1  
OPEN  
VCC_LO  
VCC_V2I  
VCC_MIX  
VCC_LO  
VCC2  
VCC1  
34  
27  
22  
17  
10  
1
16 13 12 14  
DECL2P5  
C16  
R40  
9
2
R41  
0Ω  
(0402)  
0Ω  
LODRV_EN  
C17  
C42  
R18  
(0402)  
36  
SPI  
INTERFACE  
100pF  
(0402)  
0.1µF  
(0402)  
10µF  
(0603)  
0Ω  
LON  
C5  
(0402)  
37  
38  
LO IN/OUT  
DIVIDER  
÷2  
4
3
BUFFER  
BUFFER  
DECL3P3  
C12  
LOP  
1nF  
(0402)  
C11  
0.1µF  
(0402)  
C41  
OPEN  
(0603)  
5
1
R8  
0Ω  
(0402)  
100pF  
(0402)  
DIV  
BY  
2, 1  
2:1  
MUX  
T8  
TC1-1-13+  
INTEGER  
REG  
FRACTION  
REG  
C6  
1nF  
(0402)  
MODULUS  
ADRF6603  
RF  
IN  
26  
29  
RFIN  
THIRD-ORDER  
R22  
FRACTIONAL  
C13  
1nF  
0Ω  
VCO  
CORE  
INTERPOLATOR  
(0402)  
×2  
N COUNTER  
21 TO 123  
PRESCALER  
÷2  
REF_IN  
(0402)  
REF_IN  
6
8
R73  
MUX  
÷2  
IP3SET  
CHARGE PUMP  
250µA,  
49.9Ω  
(0402)  
+
C27  
PHASE  
FREQUENCY  
DETECTOR  
R27  
0Ω  
0.1µF  
(0402)  
500µA (DEFAULT),  
750µA,  
TEMP  
SENSOR  
÷4  
REFOUT  
(0402)  
MUXOUT  
1000µA  
R16  
4
7
11 15 20 21 23 24 25 38 30 31 35  
5
3
39  
40  
18  
19  
0Ω  
R
SET  
R2  
VTUNE DECLVCO IFP  
IFN  
CP  
(0402)  
1
2
4
RFOUT  
OPEN  
(0402)  
R37  
R43  
R62  
VCC  
+5V  
0Ω  
0Ω  
0Ω  
R27  
3
(0402)  
(0402)  
5
(0402)  
0Ω  
R38  
0Ω  
(0402)  
(0402)  
R9 18kR65 0Ω  
CP  
TEST  
VTUNE  
(0402)  
(0402)  
C29  
0.1µF  
(0402)  
POINT  
R10  
1.6kΩ  
(0603)  
R63  
(ORANGE)  
OPEN  
(0402)  
C14  
270pF  
(0603)  
C13  
27pF  
(0603)  
C40  
OPEN  
(0603)  
C15  
5.6nF  
(1206)  
R12  
R11  
OPEN  
(0402)  
R1  
0Ω  
0Ω  
(0402)  
(0402)  
C43  
10µF  
(0603)  
C2  
OPEN  
(0402)  
C1  
100pF  
(0402)  
Figure 21. Basic Connections for Operation of the ADRF6603  
Rev. 0 | Page 17 of 24  
 
 
ADRF6603  
EVALUATION BOARD  
Figure 24 shows the schematic of the RoHS-compliant evalua-  
tion board for the ADRF6603. This board has four layers and  
was designed using Rogers 4350 hybrid material to minimize  
high frequency losses. FR4 material is also adequate if the design  
can accept the slightly higher trace loss of this material.  
The evaluation board is designed to operate using the internal  
VCO of the device (the default configuration) or with an  
external VCO. To use an external VCO, R62 and R12 should  
be removed. Place 0 ꢀ resistors in R63 and R11. The input of  
the external VCO should be connected to the VTUNE SMA  
connector, and the external VCO output should be connected  
to the LO IN/OUT SMA connector. In addition to these hard-  
ware changes, internal register settings must also be changed to  
enable operation with an external VCO (see the Register 6—  
VCO Control and VCO Enable (Default: 0x1E2106) section).  
Additional configuration options for the evaluation board are  
described in Table 10.  
EVALUATION BOARD CONTROL SOFTWARE  
Software to program the ADRF6603 is available for download  
from www.analog.com. To install the software, download and  
extract the zip file. Then run the following installation file:  
ADRF6x0x_3p0p0_XP_install.exe  
The evaluation board can be connected to the PC using a PC  
parallel port or a USB port. These options are selectable from  
the opening menu of the software interface (see Figure 22). The  
evaluation board is shipped with a 25-pin parallel port cable  
for connection to the PC parallel port.  
Figure 22. Control Software Opening Menu  
To connect the evaluation board to a USB port, a USB adapter  
board (Part No. EVAL-ADF4XXXZ-USB) must be purchased  
from www.analog.com. This board connects to the PC using a  
standard USB cable with USB mini-connector at one end. An  
additional 25-pin male to 9-pin female adapter is required to  
mate the ADF4XXXZ-USB board to the 9-pin D-Sub connector  
on the ADRF6603 evaluation board.  
Figure 23 shows the main menu of the control software with the  
default settings displayed.  
Rev. 0 | Page 18 of 24  
 
 
 
ADRF6603  
Figure 23. Main Window of the ADRF6603 Evaluation Board Software  
Rev. 0 | Page 19 of 24  
 
ADRF6603  
SCHEMATICS AND ARTWORK  
2 0 3 7 - 5 4 0 8  
W 1 - 4 T C  
6
4
3
2
1
0
3
R 4  
0
6
R 6  
G N D  
N I F  
D
G N  
N C  
N C  
_ L C O C V  
G N  
0
P I F  
0
3
R 3  
O L _ C V C  
4
0
R 3  
0
3
2
N
L L P _ E  
G N D  
L E  
1
D
R 2  
2
3
S2  
1
N E _ V R D L O  
L O N  
S 1  
0
K
C L  
1
P
E
L O  
5
R 3  
A T D A  
U N V T  
G N D  
C V O C L D E  
0
0
2
R 6  
2
R 7  
1
0
2
R 1  
6
8 0  
D
1
T B  
R 7  
0
R 1  
D N I  
R 1  
1
8
C 2  
0
F U 1 0  
7
R 3  
0
B B _ C V C  
O L _ C V C  
F R _ C V C  
2
1
9
R 3  
D N I  
R 1  
0
4
Y 1  
R 3  
0
R 2  
Figure 24. Evaluation Board Schematic  
Rev. 0 | Page 20 of 24  
 
 
ADRF6603  
Figure 25. Evaluation Board Layout (Bottom)  
Figure 26. Evaluation Board Layout (Top)  
Rev. 0 | Page 21 of 24  
ADRF6603  
EVALUATION BOARD CONFIGURATION OPTIONS  
Table 10.  
Default Condition/  
Option Settings  
Component  
Description  
S1, R55, R56, R33  
LO selecu. Swꢁuch aiꢀ ꢂesꢁsuoꢂs uo gꢂopiꢀ uhe LODRV_EN nꢁi. The LODRV_EN nꢁi seuuꢁig, ꢁi  
combꢁiauꢁoi wꢁuh ꢁiueꢂial ꢂegꢁsueꢂ seuuꢁigs, ꢀeueꢂmꢁies wheuheꢂ uhe LOP aiꢀ LON nꢁis  
fpicuꢁoi as ꢁinpus oꢂ opunpus (see uhe LO Selecuꢁoi Logꢁc secuꢁoi foꢂ moꢂe ꢁifoꢂmauꢁoi).  
S1 = R55 = onei  
(iou ꢁisualleꢀ)  
R56 = R33 = 0 Ω  
LODRV_EN = 0 V  
LO IN/OUT  
SMA Coiiecuoꢂ  
LO ꢁinpu/opunpu. Ai exueꢂial 1× LO oꢂ 2× LO cai be annlꢁeꢀ uo uhꢁs sꢁigle-eiꢀeꢀ ꢁinpu  
coiiecuoꢂ.  
LO ꢁinpu  
REFIN  
SMA Coiiecuoꢂ  
Refeꢂeice ꢁinpu. The ꢁinpu ꢂefeꢂeice fꢂeqpeicy foꢂ uhe PLL ꢁs annlꢁeꢀ uo uhꢁs coiiecuoꢂ.  
Iinpu ꢁmneꢀaice ꢁs 50 Ω.  
REFOUT  
SMA Coiiecuoꢂ  
Mpluꢁnlexeꢂ opunpu. The REFOUT coiiecuoꢂ coiiecus ꢀꢁꢂeculy uo uhe MUXOUT nꢁi. The  
oi-boaꢂꢀ mpluꢁnlexeꢂ cai be nꢂogꢂammeꢀ uo bꢂꢁig opu uhe followꢁig sꢁgials:  
REFIN, 2× REFIN, REFIN/2, REFIN/4.  
Lock ꢀeuecu  
Temneꢂaupꢂe seisoꢂ opunpu voluage.  
Lock ꢀeuecu ꢁiꢀꢁcauoꢂ.  
CP Tesu Poꢁiu  
Chaꢂge npmn uesu noꢁiu. The pifꢁlueꢂeꢀ chaꢂge npmn sꢁgial cai be nꢂobeꢀ au uhꢁs uesu  
noꢁiu. Noue uhau uhe CP nꢁi shoplꢀ iou be nꢂobeꢀ ꢀpꢂꢁig cꢂꢁuꢁcal measpꢂemeius spch as  
nhase ioꢁse.  
R37, C14, R9, R10,  
C15, C13, R65, C40  
Loon fꢁlueꢂ. Loon fꢁlueꢂ comnoieius.  
R11, R12  
Loon fꢁlueꢂ ꢂeupꢂi. Whei uhe ꢁiueꢂial VCO ꢁs pseꢀ, uhe loon fꢁlueꢂ comnoieius shoplꢀ be  
ꢂeupꢂieꢀ uo Pꢁi 40 (DECLVCO) by ꢁisuallꢁig a 0 Ω ꢂesꢁsuoꢂ ꢁi R12. Whei ai exueꢂial VCO ꢁs pseꢀ,  
uhe loon fꢁlueꢂ comnoieius cai be ꢂeupꢂieꢀ uo gꢂopiꢀ by ꢁisuallꢁig a 0 Ω ꢂesꢁsuoꢂ ꢁi R11.  
R12 = 0 Ω (0402)  
R11 = onei (0402)  
R62, R63, VTUNE  
SMA Coiiecuoꢂ  
Iiueꢂial vs. exueꢂial VCO. Whei uhe ꢁiueꢂial VCO ꢁs eiableꢀ, uhe loon fꢁlueꢂ comnoieius aꢂe  
coiiecueꢀ ꢀꢁꢂeculy uo uhe VTUNE nꢁi (Pꢁi 39) by ꢁisuallꢁig a 0 Ω ꢂesꢁsuoꢂ ꢁi R62.  
To pse ai exueꢂial VCO, R62 shoplꢀ be lefu onei. A 0 Ω ꢂesꢁsuoꢂ shoplꢀ be ꢁisualleꢀ ꢁi R63,  
aiꢀ uhe voluage ꢁinpu of uhe VCO shoplꢀ be coiiecueꢀ uo uhe VTUNE SMA coiiecuoꢂ. The  
opunpu of uhe VCO ꢁs bꢂopghu back ꢁiuo uhe PLL vꢁa uhe LO IN/OUT SMA coiiecuoꢂ.  
R62 = 0 Ω (0402)  
R63 = onei (0402)  
R2  
RSET nꢁi. Thꢁs nꢁi ꢁs pipseꢀ aiꢀ shoplꢀ be lefu onei.  
R2 = onei (0402)  
RFIN SMA Coiiecuoꢂ RF ꢁinpu. The RF ꢁinpu sꢁgial shoplꢀ be annlꢁeꢀ uo uhe RFIN SMA coiiecuoꢂ. The RF ꢁinpu of R3 = R23 = onei (0402)  
uhe ADRF6603 ꢁs ac-copnleꢀ, uheꢂefoꢂe, io bꢁas ꢁs iecessaꢂy.  
T3  
IF opunpu. The ꢀꢁffeꢂeiuꢁal IF opunpu sꢁgials fꢂom uhe ADRF6603 (IFP aiꢀ IFN) aꢂe coiveꢂueꢀ  
uo a sꢁigle-eiꢀeꢀ sꢁgial by T3.  
Rev. 0 | Page 22 of 24  
 
 
 
ADRF6603  
OUTLINE DIMENSIONS  
6.00  
BSC SQ  
0.60 MAX  
0.60 MAX  
PIN 1  
INDICATOR  
31  
40  
1
30  
PIN 1  
INDICATOR  
0.50  
BSC  
TOP  
VIEW  
4.25  
4.10 SQ  
3.95  
5.75  
BSC SQ  
EXPOSED  
PAD  
(BOT TOM VIEW)  
0.50  
0.40  
0.30  
21  
10  
20  
11  
0.25 MIN  
4.50  
REF  
12° MAX  
0.80 MAX  
0.65 TYP  
FOR PROPER CONNECTION OF  
THE EXPOSED PAD, REFER TO  
THE PIN CONFIGURATION AND  
FUNCTION DESCRIPTIONS  
0.05 MAX  
0.02 NOM  
1.00  
0.85  
0.80  
0.30  
0.23  
0.18  
COPLANARITY  
0.08  
0.20 REF  
SECTION OF THIS DATA SHEET.  
SEATING  
PLANE  
COMPLIANT TO JEDEC STANDARDS MO-220-VJJD-2  
Figure 27. 40-Lead Lead Frame Chip Scale Package [LFCSP_VQ]  
6 mm × 6 mm Body, Very Thin Quad  
(CP-40-1)  
Dimensions shown in millimeters  
ORDERING GUIDE  
Model1  
ADRF6603ACPZ-R7  
ADRF6603-EVALZ  
Temperature Range  
Package Description  
Package Option  
CP-40-1  
−40°C uo +85°C  
40-Leaꢀ Leaꢀ Fꢂame Chꢁn Scale Package [LFCSP_VQ]  
Evalpauꢁoi doaꢂꢀ  
1 Z = RoHS Comnlꢁaiu Paꢂu.  
Rev. 0 | Page 23 of 24  
 
 
 
ADRF6603  
NOTES  
©2010 Analog Devices, Inc. All rights reserved. Trademarks and  
registered trademarks are the property of their respective owners.  
D08547-0-3/10(0)  
Rev. 0 | Page 24 of 24  

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