HMC 1190
HMC 1190
v06.1113
TE
Single-ended RF input ports
Maximum Phase Detector Rate: 100 MHz
Low Phase Noise: -110 dBc/Hz in Band Typical
PLL FOM:
-230 dBc/Hz Integer Mode, -227 dBc/Hz Frac-
tional Mode
< 180 fs Integrated RMS Jitter (1 kHz to 20 MHz)
LE LO Low Noise Floor: -165 dBc/Hz
Mixer Low Noise Floor: -161 dBc/Hz
Integrated VCO
External VCO Input, differential LO output
Exact Frequency Mode:
0 Hz Fractional Frequency Error
SO
Programmable RF Output Phase
Output Phase Synchronous Frequency Changes
Output Phase Synchronization
LO Output Mute Function
Compact Solution, 6x6 mm Leadless QFN Package
General Description
The HMC1190LP6GE is a high linearity broadband dual channel downconverting mixer with integrated PLL and VCO
B
optimized for multi-standard receiver applications that require a compact, low power design. Integrated wideband
limiting LO amplifiers enable the HMC1190LP6GE to achieve an unprecedented RF bandwidth of 700 MHz to 3500
MHz for applications including Cellular/3G, LTE/WiMAX/4G. Unlike conventional narrow-band downconverters, the
HMC1190LP6GE supports both high-side and low-side LO injection over all RF frequencies. The RF and LO input
ports are internally matched to 50 Ohms.
O
The HMC1190LP6GE features an integrated LO and RF baluns, enable control of IF and LO amplifiers and bias con-
trol interface to high linearity passive mixer cores. Balanced passive mixer combined with high-linearity IF amplifier
architecture provides excellent LO-to-RF, LO-to-IF, and RF-to-IF isolations. Low noise figure of 9 dB, and high IIP3
of +24 dBm allow the HMC1190LP6GE to be used in most demanding applications. External bias control pins enable
optimization of already low power dissipation of 2.34 W (typical). Fast enable control interface reduces power con-
sumption further in TDD applications.
External VCO input allows the HMC1190LP6GE to lock external VCOs, and enables cascaded LO architectures for
MIMO applications. Two separate Charge Pump (CP) outputs enable separate loop filters optimized for both integrated
and external VCOs, and seamless switching between integrated or external VCOs during operation. Programmable
RF output phase features can further phase adjust and synchronize multiple HMC1190LP6GE’s enabling scalable
MIMO and beam-forming radio architectures.
Additional features include configurable LO output mute function, Exact Frequency Mode that enables the
HMC1190LP6GE to generate fractional frequencies with 0 Hz frequency error, and the ability to synchronously change
frequencies without changing phase of the output signal that increases efficiency of digital pre-distortion loops. The
HMC1190LP6GE is housed in RoHS compliant compact 6x6 mm leadless QFN package.
TRANSCEIVERS - Rx RFICs
BIAS2=VCC1=VCC2=VGATE1=VGATE2=5V, VGATE = 4.8V.
Parameter Typical Units
Mixer Core RF Input Frequency Range 700 - 3500 MHz
Mixer Core IF Output Frequency Range 50 - 350 MHz
RF=1900 RF=2200 RF=2700
TE
RF=900 MHz[2]
MHz[3] MHz [3] MHz [3]
Conversion Gain 9.3 [5] 8.4 [5] 8.1 [5] 7.1 [5] dB
IP3 (Input) 24.5 24 23.5 23.5 dBm
Noise Figure (SSB) 8.5 9.2 9.5 10 dB
1 dB Compression (Input) 10.7 11.4 11.2 12 dBm
LO leakage @ RF port -67 -58 -59 -58 dBm
RF to IF Isolation
Channel to Channel Isolation [4]
+2RF-2LO Response
+3RF-3LO Response
[1] LO Power Level can be adjusted using Reg 16h.
LE 40
53
68
69
46
49
67
68
45
48
70
74
52
48
72
78
dB
dBc
dBc
dBc
5 V Supply Rails (VDDCP, VCS1, VCS2, VDDLS, VBIASIF1, VBIASIF2, LOBIAS1, LOBIAS2, VCC1, +4.8 +5 +5.2 V
VCC2) 348 [1] mA
VGATE1, VGATE2 +4.5 +5 +5.2 V
O
[1] LO Frequency=2400 MHz, LO_MIX Power and LO_OUT Power set to ‘3’, LO_MIX and LO_OUT is differential and LO_OUT is off. When LO_OUT
enabled in differential mode the bias current increases by 34 mA (Typ.)
TE
3.3 V Supplies (3VRVDD, DVDD3V, VCCHF, VCCPS, VCCPD) 58 mA
LE
LO_OUT differential, LO_MIXER differential [1]
5 V Supplies (VDDLS, VCC1, VCC2, VDDCP)
3.3 V Supplies (3VRVDD, DVDD3V, VCCHF, VCCPS, VCCPD)
150
mA
mA
mA
3.3 V Supplies (3VRVDD, DVDD3V, VCCHF, VCCPS, VCCPD) 58 mA
SO
VCCPD, VCCPS, VCCHF, DVDD3V, 3VRVDD (+3.3V) 58 64 mA
VDDIF (5V) 0 mA
VCS1 + VCS2 (5V) 4 mA
Mixer Core Supply Currents VBIASIF1 + VBIASIF2 (5V) 3.5 mA
when IF1EN and IF2EN are
Disabled VGATE1 + VGATE2 (5V) 4 mA
LOBIAS1 + LOBIAS2 (5V) 5.5 mA
LOVDD (3.3 V) 4 mA
B
[1] LO Frequency=2400 MHz, LO_MIX and LO_OUT outputs set to maximum gain.
O
TRANSCEIVERS - Rx RFICs
Logic High 1.2 V
Input Capacitance 2 pF
LO Output Characteristics
TE
LO Output Frequency 50 4100 MHz
Fractional
Fractional Mode
16
20
DC
524287
524283
100 MHz
PD Frequency
Integer Mode DC 100 MHz
SO
Harmonics
TE
Figure of Merit
VCO Characteristics
Measured at 2.5 V
Measured at 2.5 V
Measured at 2.5 V
14.5
16.2
14.6
15.4
MHz/V
MHz/V
MHz/V
MHz/V
Figure 1. Conversion Gain vs. VGATE [1] [2] Figure 2. Input IP3 vs. VGATE [1]
12 31
29
TRANSCEIVERS - Rx RFICs
10
CONVERSION GAIN (dB)
27
8
25
IIP3(dBm)
6 23
21
4
19
TE
2
17
0 15
0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5 0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5
FREQUENCY (GHz) FREQUENCY (GHz)
90
LE Figure 4. +3RF -3LO Response vs. VGATE[1]
100
90
+2RF-2LO RESPONSE (dBc)
80 80
70 70
SO
60 60
50 50
40 40
0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5 0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5
FREQUENCY (GHz) FREQUENCY (GHz)
20
18
16
NOISE FIGURE (dB)
14
12
10
4
0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5
FREQUENCY (GHz)
4.7V 4.9V
4.8V 5.0V
[1] VGATE is bias voltage for passive mixer cores (VGATE1 and VGATE2 pins). Refer to pin description table.
[2] Balun losses at IF output ports are de-embedded.
Figure 6. Conversion Gain vs. High Side LO Figure 7. Input IP3 vs. High Side LO
& Low Side LO @ VGATE=4.8V [1] & Low Side LO @ VGATE=4.8V
12 31
29
TRANSCEIVERS - Rx RFICs
10
CONVERSION GAIN (dB)
27
8
25
IIP3 (dBm)
6 23
21
4
19
TE
2
17
0 15
0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5 0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5
FREQUENCY (GHz) FREQUENCY (GHz)
70
LE Figure 9. LO Leakage @ VGATE=4.8V
0
-20
60
LEAKAGE (dBm)
ISOLATION (dB)
50
-40
SO
40
30
-60
20
10 -80
0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5 0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5
FREQUENCY (GHz) FREQUENCY (GHz)
12 31
29
10
CONVERSION GAIN (dB)
27
8
25
IIP3(dBm)
6 23
21
4
19
2
17
0 15
0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5 0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5
FREQUENCY (GHz) FREQUENCY (GHz)
Figure 12. +2RF -2LO Response vs. Figure 13. +3RF -3LO Response vs.
LO Drive @ VGATE=4.8V LO Drive @ VGATE=4.8V
100 100
TRANSCEIVERS - Rx RFICs
90 90
+2RF-2LO RESPONSE (dBc)
70 70
60 60
TE
50 50
40 40
0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5 0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5
FREQUENCY (GHz) FREQUENCY (GHz)
Figure 14. RF Input Return Loss Figure 15. IF Output Return Loss
@ VGATE=4.8V [1]
0
-5
LE @ VGATE=4.8V [1]
0
-5
RETURN LOSS (dB)
-10
-15
-10
SO
-20
-25
-15
-30
-35 -20
0.1 0.7 1.2 1.8 2.3 2.9 3.4 4 0.1 0.2 0.3 0.4 0.5 0.6 0.7 0.8 0.9 1
FREQUENCY (GHz) FREQUENCY (GHz)
20
15
P1dB (dBm)
10
0
0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5
FREQUENCY (GHz)
Figure 17. Conversion Gain vs. Figure 18. Input IP3 vs.
Temperature @ VGATE=5.0V [1] Temperature @ VGATE=5.0V
12 31
29
TRANSCEIVERS - Rx RFICs
10
CONVERSION GAIN (dB)
27
8
25
IIP3(dBm)
6 23
21
4
19
TE
2
17
0 15
0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5 0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5
FREQUENCY (GHz) FREQUENCY (GHz)
Figure 19. +2RF -2LO Response vs. Figure 20. +3RF -3LO Response vs.
Temperature @ VGATE=5.0V
100
90
LE Temperature @ VGATE=5.0V
100
90
+2RF-2LO RESPONSE (dBc)
80 80
70 70
SO
60 60
50 50
40 40
0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5 0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5
FREQUENCY (GHz) FREQUENCY (GHz)
20
18
16
NOISE FIGURE (dB)
14
12
10
4
0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5
FREQUENCY (GHz)
Figure 22. Conversion Gain vs. Figure 23. Input IP3 vs.
Temperature @ VGATE=4.9V [1] Temperature @ VGATE=4.9V
12 31
29
TRANSCEIVERS - Rx RFICs
10
CONVERSION GAIN (dB)
27
8
25
IIP3(dBm)
6 23
21
4
19
TE
2
17
0 15
0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5 0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5
FREQUENCY (GHz) FREQUENCY (GHz)
Figure 24. +2RF -2LO Response vs. Figure 25. +3RF -3LO Response vs.
Temperature @ VGATE=4.9V
100
90
LE Temperature @ VGATE=4.9V
100
90
+2RF-2LO RESPONSE (dBc)
80 80
70 70
SO
60 60
50 50
40 40
0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5 0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5
FREQUENCY (GHz) FREQUENCY (GHz)
20
18
16
NOISE FIGURE (dB)
14
12
10
4
0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5
FREQUENCY (GHz)
Figure 27. Conversion Gain vs. Figure 28. Input IP3 vs.
Temperature @ VGATE=4.8V [1] Temperature @ VGATE=4.8V
12 31
29
TRANSCEIVERS - Rx RFICs
10
CONVERSION GAIN (dB)
27
8
25
IIP3(dBm)
6 23
21
4
19
TE
2
17
0 15
0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5 0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5
FREQUENCY (GHz) FREQUENCY (GHz)
Figure 29. +2RF -2LO Response vs. Figure 30. +3RF -3LO Response vs.
Temperature @ VGATE=4.8V
100
90
LE Temperature @ VGATE=4.8V
100
90
+2RF-2LO RESPONSE (dBc)
80 80
70 70
SO
60 60
50 50
40 40
0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5 0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5
FREQUENCY (GHz) FREQUENCY (GHz)
20
18
16
NOISE FIGURE (dB)
14
12
10
4
0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5
FREQUENCY (GHz)
Figure 32. Conversion Gain vs. Figure 33. Input IP3 vs.
Temperature @ VGATE=4.7V [1] Temperature @ VGATE=4.7V
12 31
29
TRANSCEIVERS - Rx RFICs
10
CONVERSION GAIN (dB)
27
8
25
IIP3(dBm)
6 23
21
4
19
TE
2
17
0 15
0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5 0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5
FREQUENCY (GHz) FREQUENCY (GHz)
Figure 34. +2RF -2LO Response vs. Figure 35. +3RF -3LO Response vs.
Temperature @ VGATE=4.7V
100
90
LE Temperature @ VGATE=4.7V
100
90
+2RF-2LO RESPONSE (dBc)
80 80
70 70
SO
60 60
50 50
40 40
0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5 0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5
FREQUENCY (GHz) FREQUENCY (GHz)
20
18
16
NOISE FIGURE (dB)
14
12
10
4
0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5
FREQUENCY (GHz)
Figure 37. Channel to Channel Isolation vs. Figure 38. Channel to Channel Isolation vs.
VGATE IF Frequency
70 60
TRANSCEIVERS - Rx RFICs
65 55
ISOLATION (dB)
ISOLATION (dB)
60 50
55 45
50 40
TE
45 35
40 30
0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5 0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5
FREQUENCY (GHz) FREQUENCY (GHz)
29
10
CONVERSION GAIN (dB)
27
8
25
SO
IIP3(dBm)
6 23
21
4
19
2
17
0 15
0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5 0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5
FREQUENCY (GHz) FREQUENCY (GHz)
B
Figure 41. Conversion Gain vs. Figure 42. Input IP3 vs.
Vdd @ VGATE=4.8V [1] Vdd @ VGATE=4.8V
O
12 31
29
10
CONVERSION GAIN (dB)
27
8
25
IIP3(dBm)
6 23
21
4
19
2
17
0 15
0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5 0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5
FREQUENCY (GHz) FREQUENCY (GHz)
VDD_IF=4.75V, VDD_LO=2.85V
VDD_IF=4.75V, VDD_LO=2.85V
VDD_IF=5.00V, VDD_LO=3.00V
VDD_IF=5.00V, VDD_LO=3.00V
VDD_IF=5.25V, VDD_LO=3.45V
VDD_IF=5.25V, VDD_LO=3.45V
Figure 43. Conversion Gain vs. IF Frequency Figure 44. IIP3 vs. IF Frequency
@ LO=850 MHz, VGATE=4.8V [1] @ LO=850 MHz, VGATE=4.8V
12 31
29
TRANSCEIVERS - Rx RFICs
10
CONVERSION GAIN (dB)
27
8
25
IIP3(dBm)
6 23
21
4
19
TE
2
17
0 15
0 100 200 300 400 500 600 700 0 100 200 300 400 500 600 700
FREQUENCY (MHz) FREQUENCY (MHz)
29
10
CONVERSION GAIN (dB)
27
8
25
SO
IIP3(dBm)
6 23
21
4
19
2
17
0 15
0 100 200 300 400 500 600 700 0 100 200 300 400 500 600 700
FREQUENCY (MHz) FREQUENCY (MHz)
B
-60
TRANSCEIVERS - Rx RFICs
-100
PHASE NOISE(dBc/Hz)
PHASE NOISE(dBc/Hz)
-80
-120
-100
-120
-140
-140
-160
TE
-160
-180 -180
1 10 100 1000 10000 100000 1 10 100 1000 10000 100000
OFFSET (KHz) OFFSET (KHz)
Div1 Div8 Div62
Div2 Div16
Div4 Div32
-60
LE Fractional Mode Closed Loop Phase Noise
@4100 MHz with various divider ratios [1]
-100
-80
PHASE NOISE(dBc/Hz)
PHASE NOISE(dBc/Hz)
-80
-120
-100
SO
-120
-140
-140
-160
-160
-180 -180
1 10 100 1000 10000 100000 1 10 100 1000 10000 100000
OFFSET (KHz) OFFSET (KHz)
Div1 Div8 Div62
Div2 Div16
B
Div4 Div32
-80
-100
PHASE NOISE(dBc/Hz)
-120
-140
-160
-180
1 10 100 1000 10000 100000
OFFSET (KHz)
Div1 Div8 Div62
Div2 Div16
Div4 Div32
[1] Using 122.88 MHz clock input, 61.44 MHz PFD, 2.5 mA CP, 174 uA Leakage.
[2] Using 100 MHz clock input, 50MHz PFD, 2.5 mA CP, 174 uA Leakage
-110
-60
TRANSCEIVERS - Rx RFICs
100 kHz Offset
PHASE NOISE(dBc/Hz)
-120
-80
-140
-160
TE
-160 -170
10
LE Figure 55. Integrated RMS Jitter [2]
INTEGRATED JITTER (ps)
0.25
0.3
OUTPUT POWER (dBm)
0.2
5
SO
0.15
0
0.1
-5
0.05
-10 0
100 1000 0 500 1000 1500 2000 2500 3000 3500 4000
OUTPUT FREQUENCY (MHz) OUTPUT FREQUENCY (MHz)
70
O
-222
60
-224
KVCO (MHz/V)
50
FOM (dBc/Hz)
-226
40
-228
30
-230
20
10 -232
0 -234
0 1 2 3 4 5 -15 -12 -9 -6 -3 0 3
TUNING VOLTAGE (V)
REFERENCE POWER (dBm)
ML core, Tuning Cap 15 H core, Tuning Cap 7
14 MHz Square Wave 50 MHz Square Wave
MH core, Tuning Cap 7 CL core, Tuning Cap 15
25 MHz Square Wave 100 MHz Square Wave
L core, Tuning Cap 15 CH core, Tuning Cap 15
[1] Both Aux. LO and MOD LO Gain Set to ‘3’ (Max Level), both Aux. LO and MOD LO Buffer Enabled, measured from Auxiliary LO Port.
[2] RMS Jitter data is measured in fractional mode using 50 MHz reference frequency, from 1 kHz to 100 MHz integration bandwidth.
[3] Measured from a 50 Ω source with a 100 Ω external resistor termination. See PLL with Integrated RF VCOs Operating Guide Reference Input
Stage section for more details. Full FOM performance up to maximum 3.3 Vpp input voltage.
Information furnished by Analog Devices is believed to be accurate and reliable. However, no
For price, delivery and to place orders: For price, 2delivery, and to placeChelmsford,
orders: Analog MA
Devices, Inc.,
responsibility is assumed by Analog Devices for its use, nor for anyHittite Microwave
infringements Corporation,
of patents or other Elizabeth Drive, 01824
One Technology Way, P.O. Box 9106, Norwood, MA 02062-9106
rights of third parties that may result from its use. Specifications subject to change without notice. No
Phone: 978-250-3343 Fax: 978-250-3373 Phone:
license is granted by implication or otherwise under any patent or patent rights of Analog Devices.
Order781-329-4700
On-line at www.hittite.com
• Order online at www.analog.com 16
Trademarks and registered trademarks are Application Support:
the property of their Phone: 978-250-3343
respective owners. Application Support: Phone: 1-800-ANALOG-D
or apps@hittite.com
HMC1190LP6GE
v06.1113
-210
-210
Typ FOM vs Offset
-215
FOM (dBc/Hz)
-220
FOM Floor
-220 FOM 1/f Noise
-225 -230
TE
-230
-235 -240
2 3 4 5 6
10 10 10 10 10
-20 -15 -10 -5 0 5
REFERENCE POWER (dBm) OFFSET (Hz)
-60
LE Performance @ 2646.96 MHz
Exact Frequency Mode OFF [2]
-40
-60
PHASE NOISE(dBc/Hz)
PHASE NOISE(dBc/Hz)
-80 -80
-100 -100
SO
-120 -120
-140 -140
-160 -160
-180 -180
1 10 100 1000 10000 100000 1 10 100 1000 10000 100000
OFFSET (KHz) OFFSET (KHz)
B
-40
20
FORWARD TRANMISSION GAIN (dB)
-60
S21 EXT-IN LO OUT DIFFERENTIAL OUTPUT
15
PHASE NOISE(dBc/Hz)
-80
10 -100
-120
5
-140
S21 EXT-IN LO OUT SINGLE-ENDED OUTPUT
0 -160
-180
-5
1 10 100 1000 10000
400 800 1200 1600 2000 2400 2800
OFFSET (KHz)
OUTPUT FREQUENCY (MHz)
[1] Measured from a 50 Ω source with a 100 Ω external resistor termination. See PLL with Integrated RF VCOs Operating Guide Reference Input Stage
section for more details. Full FOM performance up to maximum 3.3 Vpp input voltage.
[2] 122.88 MHz clock input, PFD = 61.44 MHz, Channel Spacing = 240 KHz.
[3] S21 from Ext_VCO (pin 43, 44) in and LO (pin32, 33) out.
Information furnished by Analog Devices is believed to be accurate and reliable. However, no
For price, delivery and to place orders: For price, 2delivery, and to placeChelmsford,
orders: Analog MA
Devices, Inc.,
responsibility is assumed by Analog Devices for its use, nor for anyHittite Microwave
infringements Corporation,
of patents or other Elizabeth Drive, 01824
One Technology Way, P.O. Box 9106, Norwood, MA 02062-9106
rights of third parties that may result from its use. Specifications subject to change without notice. No
Phone: 978-250-3343 Fax: 978-250-3373 Phone: Order781-329-4700
On-line at www.hittite.com
17 license is granted by implication or otherwise under any patent or patent rights of Analog Devices.
Application
• Order online at www.analog.com
Support: Phone: 1-800-ANALOG-D
Trademarks and registered trademarks are Application Support:
the property of their Phone: 978-250-3343
respective owners. or apps@hittite.com
HMC1190LP6GE
v06.1113
Figure 64. Auxiliary LO Differential Output Figure 65. Auxiliary LO Single Ended Output
Return Loss Return Loss
0 0
TRANSCEIVERS - Rx RFICs
-5 -5
RETURN LOSS (dB)
-15 -15
-20 -20
TE
-25 -25
-30 -30
100 1000 100 1000
OUTPUT FREQUENCY (MHz) OUTPUT FREQUENCY (MHz)
LE
SO
TE
2.7 -59 -58 -82 -55 RF Freq. = 0.9 GHz @-5 dBm
LO Freq. = 0.8 GHz @ Max. level
3.1 -60 -58 -77 -48
All values in dBc below IF power level (1RF - 1LO).
3.5 -53 -63 -73 -48
LO = Max. level
All values in dBm measured at RF port.
[1] IF and LO amplifiers can be disabled through SPI bus. See `Enabling/Disabling Mixer Features` application section.
Table 11. Absolute Maximum Ratings Table 12. Recommended Operating Conditions
RF Input Power (VBIASIF1,2= +5V, VDDCP, VCS1, VCS2, VBIASIF1, VBIASIF2,LO-
+20 dBm
LOVDD=3.0V) BIAS1,LOBIAS2,VCC1,VCC2,VGATE1,VGATE2,VD- 5.0 V
TRANSCEIVERS - Rx RFICs
DLS
VBIASIF1,2, LOVDD 6V
LOVDD, 3VRVDD, DVDD3V, VCCPD, VCCPS,
VGATE1,2, VDDCP, VCS1, VCS2, +3.3 V
-0.3V to +5.5V VCCHF
LOVDD
Operating Temperature -40 to +85°C
3VRVDD, DVDD3V -0.3V to +3.6V
Max. Channel Temperature 150°C
TE
Thermal Resistance
3.3°C/W
(channel to ground paddle)
Storage Temperature -65 to 150°C
Operating Temperature -40 to +85°C
ESD Sensitivity (HBM) Class 1B
Outline Drawing LE
SO
B
NOTES:
1. PACKAGE BODY MATERIAL: LOW STRESS INJECTION MOLDED PLASTIC SILICA AND
SILICON IMPREGNATED.
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Package Information
Part Number Package Body Material Lead Finish MSL Rating [2] Package Marking [1]
H1190
HMC1190LP6GE RoHS-compliant Low Stress Injection Molded Plastic 100% matte Sn MSL1
XXX
[1] 4-Digit lot number XXXX
[2] Max peak reflow temperature of 260 °C
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Bias control pins for IF amplifiers. Connect to 5V supply through 590 Ohms resistors. Refer to
8,23 VCS1, VCS2
application section for proper values of resistors to adjust IF amplifier current.
9 IF1_N
10 IF1_P
Differential IF outputs. Connect to 5V supply through choke inductors. See application circuit.
21 IF2_P
22 IF2_N
11, 20
12, 19
13, 18
VBIASIF1, VBI-
ASIF2
VGATE1,
VGAET2
RF1, RF2
LE Supply voltage pin for IF amplifier’s bias circuits.
Connect to 5V supply through filtering.
Bias pins for mixer cores. Set from 4.7V to 5.0V for operating frequency band.
RF input pins of the mixer, internally matched to 50 Ohms. RF input pins require off chip DC
blocking capacitors. See application circuit.
LO_BIAS2, Bias control pins for LO Amplifiers. Connect to 5V supply through 270 Ohms resistors. Refer to
14, 17
LO_BIAS1 application section for proper values of resistors to adjust LO amplifier current.
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15,24 RSV Reserved for internal use.Should be left floating.
3V bias supply for LO Drive stages. Refer to application circuit for appropriate filtering and bias
16 LOVDD
generation information.
25 CHIP_EN Chip Enable. Connect to logic high for normal operation.
26 LON Negative LO output used for single-ended, differential, or dual output mode.
Positive LO output used for differential or dual outputs only. While it can drive a separate load from
27 LOP
LO_N, it cannot be used when LO_N is disabled.
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34 LD/SDO Lock Detect, or Serial Data, or General Purpose (CMOS) Logic Output (GPO).
Evaluation PCB
TRANSCEIVERS - Rx RFICs
TE
LE
SO
The circuit board used in the application should use RF circuit design techniques. Signal lines should have
50 Ohm impedance while the package ground leads and exposed paddle should be connected directly to the
ground plane similar to that shown. A sufficient number of via holes should be used to connect the top and
bottom ground planes. The evaluation circuit board shown is available from Hittite upon request.
B
“Search by Part Number” pull down menu to view the product splash page.
TE
LE
Figure 66. HMC1190LP6GE PLL VCO Block Diagram
SO
TRANSCEIVERS - Rx RFICs
PLL AutoCal state machine if AutoCal is enabled (Reg 0Ah[11] = 0, see section “1.2.1 VCO Calibration” for
more information). The VCO tunes to the fundamental frequency (2050 MHz to 4100 MHz), and is locked
by the CP output from the PLL subsystem. The VCO controls the output stage of the HMC1190LP6GE
enabling configuration of:
• VCO Output divider settings configured in Reg 16h (divide by 2/4/6...60/62 to generate frequencies
TE
from 33 MHz to 2050 MHz, or divide by 1 to generate fundamental frequencies between 2050 MHz
and 4100 MHz)
• Output gain settings (Reg 16h[7:6], Reg 16h[9:8])
• Single-ended or differential output operation (Reg 17h[9:8])
• Always Mute (Reg 16h[5:0])
• Mute when unlock (Reg 17h[7])
knows which switch position on the VCO is optimum for the desired output frequency. The HMC1190LP6GE
supports Auto-Calibration (AutoCal) of the step tuned VCO. The AutoCal fixes the VCO tuning voltage at
the optimum mid-point of the charge pump output, then measures the free running VCO frequency while
searching for the setting which results in the free running output frequency that is closest to the desired
phase locked frequency. This procedure results in a phase locked oscillator that locks over a narrow
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voltage range on the varactor. A typical tuning curve for a step tuned VCO is shown in Figure 67.Note how
the tuning voltage stays in a narrow range over a wide range of output frequencies such as fast frequency
hopping.
3
TRANSCEIVERS - Rx RFICs
fmin fmax
0
1900 2100 2300 2500 2700 2900 3100 3300 3500 3700 3900 4100 4300
TE
VCO FREQUENCY(MHz)
Assuming Reg 0Ah[11]=0, the VCO calibration starts automatically whenever a frequency change is
requested. If it is desired to rerun the AutoCal routine for any reason, at the same frequency, simply rewrite
the frequency change with the same value and the AutoCal routine will execute again without changing
final frequency.
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n is set by Reg 0Ah[2:0] and results in measurement periods which are multiples of the PD
period, TxtalR.
R is the reference path division ratio currently in use, Reg 02h
Txtal is the period of the external reference (crystal) oscillator.
The VCO AutoCal counter will, on average, expect to register N counts, rounded down (floor) to the nearest
integer, every PD cycle.
N is the ratio of the target VCO frequency, fvco, to the frequency of the PD, fpd, where N can
TRANSCEIVERS - Rx RFICs
The AutoCal state machine runs at the rate of the FSM clock, TFSM, where the FSM clock frequency cannot
be greater than 50 MHz.
m
TFSM = Txtal · 2 (EQ 3)
m is 0, 2, 4 or 5 as determined by Reg 0Ah[14:13]
The expected number of VCO counts, V, is given by
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n
V = floor (N · 2 ) (EQ 4)
LE ferr ≈ ±fpd / 2
n+1
(EQ 6)
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n
Tcal = k128TFSM + 6TPD 2 + 7 · 20TFSM (EQ 7)
or equivalently
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n m
Tcal = Txtal (6R · 2 + (140+(3 · 128)) · 2 ) (EQ 8)
For guaranteed hold of lock, across temperature extremes, the resolution should be better than
1/8th the frequency step caused by a VCO sub-band switch change. Better resolution settings will show
no improvement.
Suppose the HMC1190LP6GE output frequency is to operate at 2.01 GHz. Our example crystal frequency
is fxtal = 50 MHz, R=1, and m=0 (Figure 68), hence TFSM = 20 ns (50 MHz). Note, when using AutoCal, the
maximum AutoCal Finite State Machine (FSM) clock cannot exceed 50 MHz (see Reg 0Ah[14:13]). The
FSM clock does not affect the accuracy of the measurement, it only affects the time to produce the result.
TRANSCEIVERS - Rx RFICs
This same clock is used to clock the 16 bit VCO serial port.
If time to change frequencies is not a concern, then one may set the calibration time for maximum accuracy,
and therefore not be concerned with measurement resolution.
Using an input crystal of 50 MHz (R=1 and fpd=50 MHz) the times and accuracies for calibration using
(EQ 6) and (EQ 8) are shown in Table 15 Where minimal tuning time is 1/8th of the VCO band spacing.
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Across all VCOs, a measurement resolution better than 800 kHz will produce correct results. Setting
m = 0, n = 5, provides 781 kHz of resolution and adds 8.6 µs of AutoCal time to a normal frequency hop.
Once the AutoCal sets the final switch value, 8.64 µs after the frequency change command, the fractional
register will be loaded, and the loop will lock with a normal transient predicted by the loop dynamics. Hence
as shown in this example that AutoCal typically adds about 8.6 µs to the normal time to achieve frequency
lock. Hence, AutoCal should be used for all but the most extreme frequency hopping requirements.
0
1
LE 2n
1
2
Tmmt
(µs)
0.02
0.04
Tcal
(µs)
4.92
5.04
Ferr Max
± 25 MHz
± 12.5 MHz
2 2 4 0.08 5.28 ± 6.25 MHz
3 3 8 0.16 5.76 ± 3.125 MHz
SO
4 5 32 0.64 8.64 ± 781 kHz
5 6 64 1.28 12.48 ± 390 kHz
6 7 128 2.56 20.16 ± 195 kHz
7 8 256 5.12 35.52 ± 98 kHz
If it is desirable to switch frequencies quickly it is possible to eliminate the AutoCal time by calibrating
the VCO in advance and storing the switch number vs frequency information in the host. This can be
done by initially locking the HMC1190LP6GE on each desired frequency using AutoCal, then reading,
and storing the selected VCO switch settings. The VCO switch settings are available in Reg 15h[8:1] after
every AutoCal operation. The host must then program the VCO switch settings directly when changing
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frequencies. Manual writes to the VCO switches are executed immediately as are writes to the integer and
fractional registers when AutoCal is disabled. Hence frequency changes with manual control and AutoCal
disabled, requires a minimum of two serial port transfers to the HMC1190LP6GE, once to set the VCO
switches, and once to set the PLL frequency.
If AutoCal is disabled Reg 0Ah[11]=1, the VCO will update its registers with the value written via Reg
15h[8:1] immediately.
TRANSCEIVERS - Rx RFICs
is loaded into the Delta Sigma modulator automatically after AutoCal runs. If AutoCal is disabled, Reg
0Ah[11]=1, the fractional frequency change is loaded into the Delta Sigma modulator immediately
when the register is written with no adjustment to the VCO.
Small steps in frequency in fractional mode, with AutoCal enabled (Reg 0Ah[11]=0), usually only require a
single write to the fractional register. Worst case, 3 Main Serial Port transfers to the HMC1190LP6GE could
be required to change frequencies in fractional mode. If the frequency step is small and the integer part of
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the frequency does not change, then the integer register is not changed. In all cases, in fractional mode, it
is necessary to write to the fractional register Reg 04h for frequency changes.
In integer mode, an integer register write triggers AutoCal if Reg 0Ah[11]=0, and is loaded into
the prescaler automatically after AutoCal runs. If AutoCal is disabled, Reg 0Ah[11]=1, the integer
frequency change is loaded into the prescaler immediately when written with no adjustment
to the VCO. Normally changes to the integer register cause large steps in the VCO frequency,
hence the VCO switch settings must be adjusted. AutoCal enabled is the recommended method
SO
for integer mode frequency changes. If AutoCal is disabled (Reg 0Ah[11]=1), a prior knowledge of
the correct VCO switch setting and the corresponding adjustment to the VCO is required before
executing the integer frequency change.
1. Always mute (Reg 16h[5:0] = 0d). This mode is used for manual mute control.
2. Automatically mute the outputs during VCO calibration (Reg 17h[7] = 1) that occurs during output
frequency changes.
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This mode can be useful in eliminating any out of band emissions during freqeuncy changes, and ensuring
that the system emits only desired frequencies. It is enabled by writing Reg 17h[7] = 1. Typical isolation
when the HMC1190LP6GE is muted is always better than 60 dB, and is ~ 30 dB better than disabling the
output buffers of the HMC1190LP6GE via Reg 17h[5:4].
The Phase detector (PD) has two inputs, one from the reference path divider and one from the RF path
divider. When in lock these two inputs are at the same average frequency and are fixed at a constant
average phase offset with respect to each other. We refer to the frequency of operation of the PD as fpd.
Most formulae related to step size, delta-sigma modulation, timers etc., are functions of the operating
frequency of the PD, fpd. fpd is also referred to as the comparison frequency of the PD.
The PD compares the phase of the RF path signal with that of the reference path signal and controls the
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charge pump output current as a linear function of the phase difference between the two signals. The
output current varies linearly over a full ±2π radians (±360°) of input phase difference.
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two controlling the CP Offset, where the magnitude of the offset is set by Reg 09h [20:14], and the direction
is selected by Reg 09h [21]=1 for up and Reg 09h [22]=1 for down offset.
CP Gain is used at all times, while CP Offset is only recommended for fractional mode of operation.
Typically the CP Up and Down gain settings are set to the same value (Reg 09h[13:7] = Reg 09h[6:0]).
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B
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TRANSCEIVERS - Rx RFICs
Offset current. When operating in Integer Mode simply disable CP offset in both directions (Up and down),
by writing Reg 09h[22:21] = ‘00’b and set the CP Offset magnitude to zero by writing Reg 09h[20:14]= 0.
In Fractional Mode CP linearity is of paramount importance. Any non-linearity degrades phase noise and
spurious performance.
In fractional mode, these non-linearities are eliminated by operating the PD with an average phase offset,
either positive or negative (either the reference or the VCO edge always arrives first at the PD ie. leads).
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A programmable CP offset current source is used to add DC current to the loop filter and create the desired
phase offset. Positive current causes the VCO to lead, negative current causes the reference to lead.
The CP offset is controlled via Reg 09h[20:14]. The phase offset is scaled from 0 degrees, that is the
reference and the VCO path arrive in phase, to 360 degrees, where they arrive a full cycle late.
The specific level of charge pump offset current Reg 09h[20:14] is provided in (EQ 9). It is also plotted in
Figure 70 vs. PD frequency for typical CP Gain currents.
where:
LE ( )
Required CP Offset = min 4.3 × 10−9 × FPD × ICP ,0.25 × ICP
(EQ 9)
600
500
CP Current = 2 mA
400
300
B
200 CP Current = 1 mA
100
0
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0 20 40 60 80 100
PHASE DETECTOR FREQUENCY (MHz)
Setting (Reg 0Bh[6]) = 0, masks the PD down output, which prevents the charge pump from pumping
down.
Clearing both Reg 0Bh[5] and Reg 0Bh[6] tri-states the charge pump while leaving all other functions
operating internally.
PD Force UP Reg 0Bh[9] = 1 and PD Force DN Reg 0Bh[10] = 1 allows the charge pump to be forced up
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or down respectively. This will force the VCO to the ends of the tuning range which can be useful in VCO
testing.
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SO
= 1), for 200 to 350 MHz operation. The buffer is internally DC biased, with 100 Ω internal termination. For
50 Ω match, an external 100 Ω resistor to ground should be added, followed by an AC coupling capacitor
(impedance < 1 Ω), then to the XREFP pin of the part.
At low frequencies, a relatively square reference is recommended to keep the input slew rate high. At higher
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frequencies, a square or sinusoid can be used. The following table shows the recommended operating
regions for different reference frequencies. If operating outside these regions the part will normally still
operate, but with degraded reference path phase noise performance.
TRANSCEIVERS - Rx RFICs
Frequency
Recommended Min Max Recommended Min Max
(MHz)
< 10 YES 0.6 2.5 x x x
10 YES 0.6 2.5 x x x
25 YES 0.6 2.5 ok 8 15
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50 YES 0.6 2.5 YES 6 15
100 YES 0.6 2.5 YES 5 15
150 ok 0.9 2.5 YES 4 12
200 ok 1.2 2.5 YES 3 8
Input referred phase noise of the PLL when operating at 50 MHz is between -148 and -150 dBc/Hz at 10
kHz offset depending upon the mode of operation. The input reference signal should be 10 dB better than
2.1.3
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this floor to avoid degradation of the PLL noise contribution. It should be noted that such low levels are only
necessary if the PLL is the dominant noise contributor and these levels are required for the system goals.
frequency. It is enabled by writing Reg 07h[11]=1. The HMC1190LP6GE provides LD indicator in one of
two ways:
• As an output available on the LD_SDO pin of the HMC1190LP6GE, (Configuration is required to use
the LD_SDO pin for LD purpose, for more information please see “1.8 Serial Port Open Mode” and
“1.3.5.3 Configuring LD_SDO Pin for LD Output” section).
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• Or reading from Reg 12h[1], where Reg 12h[1] = 1 indicates locked and Reg 12h[1] = 0 indicates an
unlocked condition.
The LD circuit expects the divided VCO edge and the divided reference edge to appear at the PD within a
user specified time period (window), repeatedly. Either signal may arrive first, only the difference in arrival
times is significant. The arrival of the two edges within the designated window increments an internal
counter. Once the count reaches and exceeds a user specified value (Reg 07h[2:0]) the HMC1190LP6GE
declares lock.
Failure in registering the two edges in any one window resets the counter and immediately declares an
un-locked condition. Lock is deemed to be reestablished once the counter reaches the user specified
value (Reg 07h[2:0]) again.
These settings in Reg 09h impact the required LD window size in fractional mode of operation. To function,
the required lock detect window size is provided by (EQ 10).
ICP Offset (
A)
TRANSCEIVERS - Rx RFICs
1
+ 2.66 × 10−9 (
sec )
+
FPD ()Hz × ICP ( A) FPD ()
Hz
LD Window (
seconds )
= in Fractional Mode
2 (EQ 10)
1
LD Window (
seconds )
= in Integer Mode
2 × FPD
where:
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FPD: is the comparison frequency of the Phase Detector
ICP Offset : is the Charge Pump Offset Current Reg 09h[20:14]
ICP: is the full scale current setting of the switching charge pump Reg 09h[6:0], or Reg 09h[13:7]
If the result provided by (EQ 10) is equal to 10 ns Analog LD can be used (Reg 07h[6] = 0). Otherwise
Digital LD is necessary Reg 07h[6] = 1.
Table 17 provides the required Reg 07h settings to appropriately program the Digital LD window size. From
Table 17, simply select the closest value in the “Digital LD Window Size” columns to the one calculated in
LD Timer Speed
Reg07[9:8]
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(EQ 10) and program Reg 07h[9:8] and Reg 07h[7:5] accordingly.
0.4 x10−3 ( A) 1
+ 2.66 × 10−9 (
sec )
+ (EQ 11)
50 × 106 ()
Hz × 2 x10 −3
()
A 50 × 10 6
()
Hz
LD Window (
seconds ) = 13.33 nsec
2
Locating the Table 17 value that is closest to the (EQ 11) result, in this case 13.3 ≈ 13.33. To set the Digital
LD window size, simply program Reg 07h[9:8] = ‘10’b and Reg 07h[7:5] = ‘010’b according to Table 17.
There is always a good solution for the lock detect window for a given operating point. The user should
understand however that one solution does not fit all operating points. As observed from (EQ 11), If charge
pump offset or PD frequency are changed significantly then the lock detect window may need to be
adjusted.
TRANSCEIVERS - Rx RFICs
(Serial Data Out) signals. Hence LD is available on the LD_SDO pin at all times except when a serial port
read is requested, in which case the pin reverts temporarily to the Serial Data Out pin, and returns to the
Lock Detect Flag after the read is completed.
LD can be made available on LD_SDO pin at all times by writing Reg 0Fh[6] = 1. In that case the
HMC1190LP6GE will not provide any read-back functionality because the SDO signal is not available.
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2.1.6 Cycle Slip Prevention (CSP)
When changing VCO frequency and the VCO is not yet locked to the reference, the instantaneous
frequencies of the two PD inputs are different, and the phase difference of the two inputs at the PD varies
rapidly over a range much greater than ±2π radians. Since the gain of the PD varies linearly with phase
up to ±2π, the gain of a conventional PD will cycle from high gain, when the phase difference approaches
a multiple of 2π, to low gain, when the phase difference is slightly larger than a multiple of 0 radians. The
output current from the charge pump will cycle from maximum to minimum even though the VCO has not
yet reached its final frequency. LE
The charge on the loop filter small cap may actually discharge slightly during the low gain portion of the
cycle. This can make the VCO frequency actually reverse temporarily during locking. This phenomena is
known as cycle slipping. Cycle slipping causes the pull-in rate during the locking phase to vary cyclically.
Cycle Slipping increases the time to lock to a value greater than that predicted by normal small signal
Laplace analysis.
The HMC1190LP6GE PD features an ability to reduce cycle slipping during frequency tunning. The Cycle
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Slip Prevention (CSP) feature increases the PD gain during large phase errors.
The HMC1190LP6GE automatically controls frequency tuning in the fundamental band of operation, for
more information see “1.2.1 VCO Calibration”.
To tune to frequencies below the fundamental frequency range (<2050 MHz) it is required to tune the
HMC1190LP6GE to the appropriate fundamental frequency, then select the appropriate output divider
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the integer portion of the frequency as explained by (EQ 12), ignoring the fractional part.
a. Disable the Fractional Modulator, Reg 06h[11] = 0
b. Bypass the delta-sigma modulator Reg 06h[7] = 1
c. To tune to frequencies (<2050 MHz), select the appropriate output divider valueReg 16h[5:0].
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The HMC1190LP6GE is placed in fractional mode by setting the following registers:
a. Enable the Fractional Modulator, Reg 06h[11]=1
b. Connect the delta sigma modulator in circuit, Reg 06h[7]=0
fxtal
fvco = (Nint + Nfrac) = fint + ffrac (EQ 12)
R
SO
fout = fvco / k (EQ 13)
Where:
fout is the output frequency after any potential dividers.
k is 1 for fundamental, or k = 2,4,6,…58,60,62 depending on the selected output
divider value (Reg 16h[5:0])
Nint is the integer division ratio, Reg 03h, an integer number between 20 and
B
524,284
Nfrac is the fractional part, from 0.0 to 0.99999...,Nfrac=Reg 04h/224
R is the reference path division ratio, Reg 02h
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As an example:
fout 1402.5 MHz
k 2
fvco 2,805 MHz
fxtal = 50 MHz
R =1
fpd = 50 MHz
Nint = 56
Nfrac = 0.1
50e6 1677722
TRANSCEIVERS - Rx RFICs
f VCO = (56 + ) = 2805 MHz + 1.192 Hz error (EQ 14)
1 224
f VCO
fout = = 1402.5 MHz + 0.596 Hz error (EQ 15)
2
TE
In this example the output frequency of 1402.5 MHz is achieved by programming the 19-bit binary value
of 56d = 38h into intg_reg in Reg 03h, and the 24-bit binary value of 1677722d = 19999Ah into frac_reg in
Reg 04h. The 0.596 Hz quantization error can be eliminated using the exact frequency mode if required.
In this example the VCO output fundamental 2805 MHz is divided by 2 (Reg 16h[5:0] = 2h) = 1402.5 MHz.
the desired frequency, f VCO, can be exactly represented on a step plan where there are an integer number
of steps (<224) across integer-N boundaries. Mathematically, this situation is satisfied if:
fPD
mod fgcd 0=
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=
fVCOk where fgcd gcd(fVCO1, fPD ) and fgcd ≥ 24
(EQ 16)
2
Where:
gcd stands for Greatest Common Divisor
fN = maximum integer boundary frequency < f VCO1
fPD = frequency of the Phase Detector
and f VCOk are the channel step frequencies where 0 < k < 224-1, As shown in Figure 71.
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Figure 71. Exact Frequency Tuning
Some fractional PLLs are able to achieve this by adjusting (shortening) the length of the Phase Accumulator
(the denominator or the modulus of the Delta-Sigma modulator) so that the Delta-Sigma modulator phase
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accumulator repeats at an exact period related to the interval frequency (f VCOk - f VCO(k-1)) in Figure 71.
Consequently, the shortened accumulator results in more frequent repeating patterns and as a result often
leads to spurious emissions at multiples of the repeating pattern period, or at harmonic frequencies of
f VCOk - f VCO(k-1). For example, in some applications, these intervals might represent the spacing between
radio channels, and the spurious would occur at multiples of the channel spacing.
The Hittite method on the other hand is able to generate exact frequencies between adjacent integer-N
boundaries while still using the full 24 bit phase accumulator modulus, thus achieving exact frequency
SO
steps with a high phase detector comparison rate, which allows Hittite PLLs to maintain excellent phase
noise and spurious performance in the Exact Frequency Mode.
fN = NINT ∙ fPD
2. Calculate and program the exact frequency register value Reg 0Ch = fPD/fgcd, where
fgcd = gcd(f VCO,fPD) 24
2 (
fVCOk − fN )
3. Calculate and program the fractional register setting Reg 04h NFRAC = ceil fPD , where ceil
is the ceiling function meaning “round up to the nearest integer.”
Example: To configure the HMC1190LP6GE for exact frequency mode at fVCO = 2800.2 MHz where Phase
Detector (PD) rate fPD = 61.44 MHz Proceed as follows:
Check (EQ 16) to confirm that the exact frequency mode for this f VCO is possible.
fPD
=fgcd gcd(fVCO , fPD ) and fgcd ≥
224
( )
fgcd = gcd 2800.2 × 106 ,61.44 × 106 = 120 × 103 >
61.44 × 106
224
= 3750
Since (EQ 16) is satisfied, the HMC1190LP6GE can be configured for exact frequency mode at
f VCO = 2800.2 MHz as follows:
f 2800.2 × 106
1. NINT = Reg 03h = floor VCO
=1 floor = =
45d 2Dh
61.44 × 106
fPD
TRANSCEIVERS - Rx RFICs
2. Reg 0Ch = = = = 3072 =d C00h
(
gcd (
fVCOk +1 − fVCOk )
, fPD ) ( 3
gcd 100 × 10 ,61.44 × 10 6 20000
)
3. To program Reg 04h, the closest integer-N boundary frequency fN that is less than the
desired VCO frequency f VCO must be calculated. fN = fPD ∙ NINT. Using the current example:
fN =fPD × NINT =45 × 61.44 × 106 =2764.8 MHz.
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Reg04h ceil
Then=
224 f
(
VCO − fN
=
24
)
2
ceil
(
2800.2 × 106 − 2764.8 × 106
= =
9666560
)
d 938000h
fPD 61.44 × 106
Then, to switch between various equally spaced intervals (channels) only the fractional register (Reg 04h)
needs to be programmed to the desired VCO channel frequency f VCOk in the following manner:
(
224 f
VCOk − fN )
Reg 04h = NFRAC = ceil
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fPD where fN = floor(f VCO1/fPD), and f VCO1, as shown in Figure 71, represents
the smallest channel VCO frequency that is greater than fN.
Example: To configure the HMC1190LP6GE for Exact Frequency Mode for equally spaced intervals of
100 kHz where first channel (Channel 1) = f VCO1 = 2800.200 MHz and Phase Detector (PD) rate fPD =
61.44 MHz proceed as follows:
First check that the exact frequency mode for this f VCO1 = 2800.2 MHz (Channel 1)
and f VCO2 = 2800.2 MHz + 100 kHz = 2800.3 MHz (Channel 2) is possible.
fPD f
=
fgcd1 gcd(fVCO1, fPD ) and fgcd1 ≥ fgcd 2 gcd(fVCO2 , fPD ) and fgcd 2 ≥ PD
and=
224 224
( )
fgcd1 = gcd 2800.2 × 106 ,61.44 × 106 = 120 × 103 >
61.44 × 106
224
= 3750
2800.3 × 10 ,61.44 × 10 )
=gcd ( 6 6 3 61.44 × 106
fgcd 2 =20 × 10 > =3750
224
If (EQ 16) is satisfied for at least two of the equally spaced interval (channel) frequencies f VCO1,f VCO2 ,f VCO3 ,...
f VCON, as it is above, Hittite Exact Frequency Channel Mode is possible for all desired channel frequencies,
and can be configured as follows:
TRANSCEIVERS - Rx RFICs
f 6
VCO1 floor 2800.2 × 10=
1. Reg 03h = floor =
fPD 61.44 × 106
=
45d 2Dh
fPD 61.44 × 106 61.44 × 106
2. Reg 0Ch = = = = 3072 =d C00h
gcd ((
fVCOk +1 − fVCOk )
, fPD ) ( 3
gcd 100 × 10 ,61.44 × 10 6 20000
)
where (f VCOk+1 - f VCOk) is the desired channel spacing (100 kHz in this example).
TE
3. To program Reg 04h the closest integer-N boundary frequency fN that is less than the smallest
channel VCO frequency f VCO1 must be calculated. fN = floor(f VCO1/fPD). Using the current example:
2800.2 × 106
fN =fPD × floor =45 × 61.44 × 106 =2764.8 MHz Then
61.44 × 106
(
LE
2800.2 × 106 − 2764.8 × 106
61.44 × 106
= =
9666560d 938000h
)
4. To change from channel 1 (f VCO1 = 2800.2 MHz) to channel 2 (f VCO2 = 2800.3 MHz), only
Reg 04h needs to be programmed, as long as all of the desired exact frequencies f VCOk (Figure 71)
SO
fall between the same integer-N boundaries (fN < f VCOk < fN+1). In that case
The start phase of the fractional modulator digital phase accumulator (DPA) may be set to any desired
phase relative to the reference frequency, The phase is programmed in Reg 1Ah, and Exact Frequency
Mode is required. Phase = 2π x Reg1Ah/(224) via the seed register Reg 1Ah[23:0]. The HMC1190LP6GE
will automatically reload the start phase (seed value) into the DPA every time a new fractional frequency is
selected. Certain zero or binary seed values may cause spurious energy correlation at specific frequencies.
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For most cases a random, or non zero, non-binary start seed is recommended.
It is also possible to leave various blocks on when in Power Down (see Reg 01h), including:
a. Internal Bias Reference Sources Reg 01h[2]
b. PD Block Reg 01h[3]
TRANSCEIVERS - Rx RFICs
c. CP Block Reg 01h[4]
d. Reference Path Buffer Reg 01h[5]
e. VCO Path buffer Reg 01h[6]
f. Digital I/O Test pads Reg 01h[7]
To mute the output but leave the PLL and VCO locked please refer to 1.2.4 section.
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4.3 General Purpose Output (GPO) Pin
The PLL shares the LD_SDO (Lock-Detect/Serial Data Out) pin to perform various functions. While the
pin is most commonly used to read back registers from chip via the SPI, it is also capable of exporting a
variety of signals and real time test waveforms (including Lock Detect). It is driven by a tri-state CMOS
driver with ~200 Ω Rout. It has logic associated with it to dynamically select whether the driver is enabled,
and to decide which data to export from the chip.
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In its default configuration, after power-on-reset, the output driver is disabled, and only drives during
appropriately addressed SPI reads. This allows it to share the output with other devices on the same bus.
The pin driver is enabled if the chip is addressed - ie. The last 3 bits of SPI cycle = ‘000’b before the
rising edge of SEN. If SEN rises before SCK has clocked in an ‘invalid’ (non-zero) chip -address, the
HMC1190LP6GE will start to drive the bus.
The BROADBAND HIGH IP3 DUAL CHANNEL DOWNCONVERTER will naturally switch away from the
SO
GPO data and export the SDO during an SPI read. To prevent this automatic data selection, and always
select the GPO signal, set “Prevent AutoMux of SDO” (Reg 0Fh[6] = 1). The phase noise performance at
this output is poor and uncharacterized. The GPO output should not be toggling during normal operation
because it may degrade the spectral performance.
Note that there are additional controls available, which may be helpful if sharing the bus with other devices:
• To disable the driver completely, set Reg 08h[5] = 0 (it takes precedence over all else).
• To disable either the pull-up or pull-down sections of the driver, Reg 0Fh[8] = 1 or Reg 0Fh[9] = 1
B
respectively.
Example Scenarios:
• Drive SDO during reads, tri-state otherwise (to allow bus-sharing)
• No action required.
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c. 5-bit address space
d. 3 wire for Write Only capability, 4 wire for Read/Write capability
Typical serial port operation can be run with SCLK at speeds up to 50 MHz.
e. Master places 3-bit chip address, a2:a0, MSB first, on the next 3 falling edges of SCLK (30-32). Hittite
reserves chip address a2:a0 = 000 for HMC1190LP6GE.
f. Slave shifts the chip address bits on the next 3 rising edges of SCLK (30-32).
g. Master asserts SEN after the 32nd rising edge of SCLK.
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TRANSCEIVERS - Rx RFICs
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Figure 72. Serial Port Timing Diagram - WRITE
d. Slave shifts the register bits on the next 5 rising edges of SCK (25-29).
e. Master places 3-bit chip address, a2:a0, MSB first, on the next 3 falling edges of SCK (30-32). Chip
address is always ‘000’b.
f. Slave shifts the chip address bits on the next 3 rising edges of SCK (30-32).
g. Master asserts SEN after the 32nd rising edge of SCK.
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SO
B
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TRANSCEIVERS - Rx RFICs
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LE
SO
B
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2.2 Reg 00h Open Mode Read Address/RST Strobe Register (Write Only)
Bit Type Name Width Default Description
[4:0] WO Read Address 5 - (WRITE ONLY) Read Address for next cycle
TE
[5] WO Soft Reset 1 - (WRITE ONLY) Soft Reset - (set to 0 during operation)
[23:6] WO Not Defined 18 - Not Defined (set to write 0h)
[7] R/W Keep GPO Driver ON 1 0 keeps GPO output Driver ON, ignores Chip enable control
[9:8] R/W Reserved 2 0 reserved
Fractional Mode
min 20d
25d
[18:0] R/W Integer Setting 19 max 219 - 4 = 7FFFCh = 524,284d
19h
Integer Mode
min 16d
max 219-1 = 7FFFFh = 524,287d
TRANSCEIVERS - Rx RFICs
Frequency
Tuning
Fractional Division Value = Reg4[23:0]/2^24
[23:0] R/W Fractional Setting 24 0
Used in Fractional Mode only
min 0
max 224-1 = FFFFFFh = 16,777,215d
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2.7 Reg 05h Reserved
Bit Type Name Width Default Description
[23:0] R/W Reserved 24 0 Reserved
[1:0]
[3:2]
TYPE
R/W
R/W
NAME
Reserved
DSM Order
LEWidth
2
Default
2
Reserved, Program to 0h
DESCRIPTION
Normally (When this bit is 0) SPI writes into the internal state
machines/counters happen asynchronously relative to the internal
[4] R/W Synchronous SPI Mode 1 0
clocks. This can create freq/phase disturbances if writing register
3, 4 or 1A. When this bit is enabled, the internal SPI registers are
loaded synchronously with the internal clock. This means that
the data in the SPI shifter should be held constant for at least 2
PFD clock periods after SEN is asserted to allow this retiming to
B
happen cleanly.
Exact Frequency Mode 1: Exact Frequency Mode Enabled
[5] R/W 1 0
Enable 0: Exact Frequency Mode Disabled
[6] R/W Reserved 1 0 Reserved
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6: 8192
7: 65535
[10:3] R/W Reserved 8 8 Reserved
0: LD disable
[11] R/W LD Enable 1 1
1: LD enable
[19:12] R/W Reserved 8 0 Reserved
0 to 1 transition triggers the training. Lock Detect Training
[20]
[21]
R/W
R/W
Lock Detect Training
CSP Enable
LE 9
1
0
1
is only required after changing Phase Detector frequency.
After changing PD frequency a toggle Reg 07h[20] from 0
to 1 retrains the Lock Detect.
Cycle Slip Prevention enable.
When enabled, if the phase error becomes larger than
approx 70% of the PFD period, the charge-pump gain is
increased by approx 6mA for the duration of the cycle..
[23:22] R/W Reserved 2 0 Reserved
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2.10 Reg 08h Analog EN Register DEFAULT 1BFFF h
Bit Type Name Width Default Description
[4:0] R/W Reserved 5 31d Reserved
0 - Pin LD_SDO disabled
1 - and RegFh[7]=1 , Pin LD_SDO is always driven, this is
GPO(General Purpose Output Pin required for use of GPO port
[5] R/W 1 1d
Enable)
1 - and RegFh[7]=0 LDO_SPI is off if chip address
B
Bias Enable
Only applies to External VCO
[20:11] R/W Reserved 10 55d Reserved
[21] R/W High Frequency Reference 1 0 Program to 1 for XTAL > 200 MHz, 0 otherwise
Output Logic Level on LD/SDO pin
[22] R/W SDO Output Level 1 0d 0: 1.8 V Logic Levels
1: DVDD3V Logic Level
[23] R/W Reserved 1 0d Reserved
TRANSCEIVERS - Rx RFICs
Affects fractional phase noise and lock detect settings
0d = 0 µA
100d
[6:0] R/W CP DN Gain 7 1d = 20 µA
64h
2d = 40 µA
...
127d = 2.54mA Default 2mA
Charge Pump UP Gain Control 20 µA per step
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Affects fractional phase noise and lock detect settings
0d = 0 µA
100d
[13:7] R/W CP UP Gain 7 1d = 20 µA
64h
2d = 40 µA
...
127d = 2.54mA Default 2mA
Charge Pump Offset Control 5 µA/step
Affects fractional phase noise and lock detect settings
0d = 0 µA
[20:14]
[21]
[22]
R/W
R/W
R/W
Offset Magnitude
Offset UP enable
Offset DN enable
LE 7
1
1
81d
0
1
1d = 5 µA
2d = 10 µA
...
127d = 635 µA Default 405µA
Sets Direction of Reg 09h[20:14] Up, 0- UP Offset Off
Sets Direction of Reg 09h[20:14] Down, 0- DN Offset Off
Only recommended with external VCOs and Active Loop
Filters. When enabled the HMC1190LP6GE increases CP
[23] R/W HiK charge pump Mode 1 0
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current by 3 mA, thereby improving phase noise perfor-
mance, and increasing loop bandwidth
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R Divider Cycles
0-1
1-2
2-4
3-8
[2:0] R/W Vtune Resolution 3 6d 4 - 32
5 - 64
6 - 128
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7 - 256
div cycles for frequency measurement. Measurement
should last > 4 µsec.
Note: 1 does not work if R divider = 1.
[10:3] R/W Reserved 8 16d Reserved
0 = AutoCal Enabled
[11] R/W AutoCal Disable 1 0
1 = AutoCal disabled
[12] R/W Reserved 1 0 Reserved
TRANSCEIVERS - Rx RFICs
Inverts the PD polarity (program to 0)
0- Use with a positive tuning slope VCO and Passive Loop Filter
(default when using internal VCO)
[4] R/W PD Phase Select 1 0
1- Use with a Negative Slope VCO or with an inverting Active Loop
Filter with a Positive Slope VCO (Only recommended when using an
External VCO, and an active loop filter)
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[5] R/W PD Up Output Enable 1 1 Enables the PD UP output, see also Reg 0Bh[9]
[6] R/W PD Down Output Enable 1 1 Enables the PD DN output, see also Reg 0Bh[10]
[8:7] R/W Reserved 2 0 Reserved, Program to 0d.
[9] R/W Force CP UP 1 0 Forces CP UP output on if CP is not forced down - Use for Test only
[10] R/W Force CP DN 1 0 Forces CP DN output on if CP is not forced up - Use for Test only
Force CP MId Rail - Use for Test only (if Force CP UP or Force CP
[11] R/W Force CP Mid Rail 1 0
Reserved.
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5. Pullup Hard from CSP
6. PullDN hard from CSP
7. Reserved
8: Reference Buffer Output
9: Ref Divider Output
10: VCO divider Output
11. Modulator Clock from VCO divider
12. Auxiliary Clock
[4:0] R/W GPO 5 1
13. Aux SPI Clock
14. Aux SPI Enable
LE 15. Aux SPI Data Out
16. PD DN
17. PD UP
18. SD3 Clock Delay
19. SD3 Core Clock
20. AutoStrobe Integer Write
21. Autostrobe Frac Write
22. Autostrobe Aux SPI
23. SPI Latch Enable
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24. VCO Divider Sync Reset
25. Seed Load Strobe
26.-29 Not Used
30. SPI Output Buffer En
31. Soft RSTB
[5] R/W GPO Test Data 1 0 1 - GPO Test Data when GPO_Select = 0
219 - 1d
TRANSCEIVERS - Rx RFICs
[18:0] R SAR Error Magnitude Count 19 SAR Error Magnitude Count
7FFFFh
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2.18 Reg 12h GPO/LD Register (Read Only)
BIT TYPE NAME Width Default DESCRIPTION
2.19
BIT
Reg 13h BIST Register (Read Only)
TYPE NAME
LE
Width Default
4697d
DESCRIPTION
[3:1] R/W Aux GPO Values 3 0 3 Output values can be set indivually when Reg 10h [0] = 1
0- 1.8 V output out of the Auxiliary GPO pins when Reg 10h [0] = 1
[4] R/W Aux GPO 3.3 V 1 0
1- 3.3 V output out of the Auxiliary GPO pins when Reg 10h [0] = 1
[8:5] R/W Reserved 4 1 Reserved
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When set, CHIP_EN pin is used as a trigger for phase
synchronization. Can be used to synchronize multiple
[9] R/W Phase Sync 1 1 HMC1190LP6GE, or to along with the Reg 1Ah value to phase step
the output.
(Exact Frequency Mode must be enabled)
Option to send GPO multiplexed data (ex Lock Detect) to one of the
auxiliary outputs
0- None
[11:10] R/W Aux SPI GPO Output 2 0
When disabled:
0 - Outputs Hi Z
1 - Outputs stay driven
2 - Outputs driven to high
3 - Outputs driven to low
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[23:14] R/W Reserved 10 0 Reserved
16d
[5:1] R/W Capacitor Switch Setting 5 capacitor switch setting
B
10h
[8:6] R/W Manual VCO Selection 3 2 selects the VCO core sub-band
18d
[15:10] R/W Reserved 6 Reserved
12h
TRANSCEIVERS - Rx RFICs
1 - Fo
2 - Fo/2
3 - invalid, defaults to 2
4 - Fo/2
5 - invalid, defaults to 4
[5:0] R/W RF Divide Ratio 6 1
6 - Fo/6
...
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60 - Fo/60
61 - invalid, defaults to 60
62 - Fo/62
> 62 - invalid, defaults to 62
3 - Max Gain
LO Output Buffer Gain 2 - Max Gain - 3 dB
[7:6] R/W 2 3
Control 1 - Max Gain - 6 dB
0 - Max Gain - 9 dB
3 - Max Gain
[9:8]
[10]
R/W
R/W
LO2 Output Buffer gain
Control
1
2
1
2 - Max Gain - 3 dB
1 - Max Gain - 6 dB
0 - Max Gain - 9 dB
1 - Max Gain
0 - Max Gain - 3 dB
1 - Enable
[0] R/W VCO SubSys Master Enable 1 1
0 - Disable
Chip Enable is also required to set as enable mode.
External VCO Buffer to output stage enable. Only used when locking
[2] R/W External VCO Buffer Enable 1 0
an external VCO.
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[3] R/W PLL Buffer Enable 1 1 PLL Buffer Enable. Used when using an internal VCO.
[4] R/W LO1 Output Buffer Enable 1 0 Enables LO1 (LO_P & LO_N pins) output buffer.
[5] R/W LO2 Output Buffer Enable 1 1 Enables the LO2 (LO2_N & LO2_P pins) output buffer
[7] R/W Pre Lock Mute Enable 1 1 Mute both output buffers until the PLL is locked
[8] R/W
LO1 Output Single-Ended
Enable
LE 1 1
1- Single-ended mode, LO_N pin is enabled, and LO_P pin is
disabled
0- Differential mode, both LO_N and LO_P pins enabled
Please note that single-ended output is only available on LO_N pin.
21697d
[18:0] R/W Reserved 19 Reserved
54C1h
2730d
[23:0] R/W Reserved 2 Reserved. Program to AB2h.
AAAh
TRANSCEIVERS - Rx RFICs
(Exact Frequency Mode required). When not using Exact Frequency
Delta Sigma Modulator 11705611d Mode and Auto seed Enable Reg06h[8] =1, Reg1Ah sets the start
[23:0] R/W 24
Seed B29D0Bh phase of output signal. If AutoSeed disable Reg06h[8] =0, Reg1Ah
is the start phase of the signal after every frequency changel. (LO
Phase = 2π x Reg1Ah/(224)
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LE
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cover RF frequencies from 700 MHz to 3.5 GHz. The HMC1190LP6GE`s low noise and high linearity
performance makes it suitable for a wide range of transmission standards, including TDD, FDD, LTE,
WiMAX, CDMA,GSM, MC-GSM, W-CDMA, UMTS, TD-SCDMA applications.
The HMC1190LP6GE offers an easy-to-use and complete frequency conversion solution for diversity and
MIMO receiver applications in a highly compact 6x6 mm plastic QFN package. The HMC1190LP6GE
greatly simplifies the design of diversity and MIMO receiver applications by increasing the integration level
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and reducing the number of required circuit elements thereby reducing cost, area, and power consumption.
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HMC1190LP6GE’s RF inputs can be externally matched for narrow band application frequencies with
a simple matching network including a series inductor, and a shunt capacitor to further improve the
performance. Please refer to the application circuit for narrow band RF input matching for the detailed
information.
The HMC1190LP6GE’s IF amplifiers are designed for differential 200 Ω output load impedance. A
few external components are required at these IF outputs for the broadband frequency response as
recommended in the application circuit.
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Refer to the IF output interface section for detailed information.
The HMC1190LP6GE requires 5V, 3.3V and 3V supply voltages and external bias voltages. Bias voltages
generate reference currents for the IF and LO amplifiers. 3.3V supply voltage and the external bias voltages
can be generated from 5V supply voltage to operate with a single supply. Please refer to the single supply
operation section for more information.
The reference currents to the IF and LO amplifiers can be disabled through SPI interface. See `Enabling /
Disabling Mixer Features` section for details.
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a series resistor (R_LOVDD) between LOVDD pin and supply voltage in the configuration shown in Figure
74.
If using a 5 V supply R_LOVDD = 14 Ω, and minimum power rating of R_LOVDD is 0.3 W
TRANSCEIVERS - Rx RFICs
If using a 3.3 V supply, R_LOVDD = 2.15 Ω, and minimum power of R_LOVDD is 0.05 W
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LE
Figure 74. Interface to generate 3 V for LOVDD pin from 3.3V or 5V Supply.
The VGATE1, VGATE2 pins are bias pins for mixer cores. On evaluation board VGATE1, VGATE2 pin
voltages are set to 5V. However voltage can be tuned between 4.7V and 5V for optimizing input IP3
and conversion gain performances for desired frequency band. Higher IIP3 values can be obtained by
increasing the VGATE1, VGATE2 pin voltages but this will reduce HMC1190LP6GE`s conversion gain.
Figure 77 shows the measured conversion gain and IIP3 for four values of VGATE1, VGATE2 pin voltages.
12 31
29
10
CONVERSION GAIN (dB)
27
8
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25
IIP3(dBm)
6 23
21
4
19
2
17
0 15
0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5 0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5
FREQUENCY (GHz) FREQUENCY (GHz)
Figure 75. Conversion Gain & IIP3 vs. RF Frequency over VGATE Pin Voltage @25C, IF =150 MHz
After the VGATE voltage is tuned for optimized IIP3 and conversion gain performance, the VGATE pin
voltage can be generated from 5V supply voltage by changing the value of series resistors, R54 and R56
from 0 Ohm to an appropriate value.
Table 20 shows the typical resistor values that need to be added in series with VGATE1, VGATE2 pins for
TRANSCEIVERS - Rx RFICs
different VGATE voltages.A fine tune for R54 and R56 resistors can be used if a better fit is required.
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4.8 V 120 Ohms
4.9 V 56 Ohms
5.0 V 0 Ohm
9 26
CONVERSION GAIN (dB)
8 24
IIP3(dBm)
7 22
B
6 20
5 18
4
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16
3.2 3.5 3.6 3.9 4 4.2 3.2 3.5 3.6 3.9 4 4.2
VCS (V) VCS (V)
+3.35V +4.40V +3.35V +4.4V
+3.70V +4.75V +3.7V +4.75V
+4.05V +4.05V
Figure 76.Conversion Gain, IIP3 vs. VCS1, VCS2 and LOBIAS2 voltages at 1900 MHz RF Input. [1]
Figure 76 shows the measured conversion gain and IIP3 vs. VCS and LOBIAS2 voltages at 1900MHz.
Conversion gain and IIP3 vs. VCS and LOBIAS2 voltages at 1900MHz.
TRANSCEIVERS - Rx RFICs
4.0 159 590 Ohms
5.0 V 3.75 135 740 Ohms
3.5 110 880 Ohms
3.25 86 1 KOhms
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Table 21 b. LOBIAS2 voltage vs LO Amplifier Currents
LOBIAS Jumper, J12 (V) LOBIAS2 Pin (V) LO Amp (mA) R71=R57
4.75 157 110 Ohms
4.4 150 270 Ohms
5.0 V 4.05 143 420 Ohms
3.7 135 580 Ohms
The HMC1190LP6GE`s RF inputs are internally broadband matched to 50Ω. RF inputs can be externally
740 Ohms
matched for a specific RF frequency band of interest to further improve Input IP3 (IIP3). Matching RF
inputs to a specific RF frequency band can be easily accomplished by adding a series inductor and a shunt
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capacitor. See Table 3 for values of the external matching components for corresponding RF frequency
bands. Application circuit with the external components on RF input pins can be seen at Figure 80.
VGATE1, VGATE2 pin voltages can be optimized for a specific RF frequency band by changing the resistor
values in series with these pins. Table-1 shows the resistor values (R54, R56) for corresponding VGATE
pin voltage.
Figure 77, Figure 78, and Figure 79 show the measured conversion gain, IIP3 and OIP3 for 900MHz,
1900MHz and 2500MHz RF frequency bands.
B
18 30
40
INPUT IP3 38
15 25
36
CONVERSION GAIN (dB)
34
12 20
32
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OIP3(dBm)
IIP3 (dBm)
9 15 30
28
CONVERSION GAIN
6 10 26
24
3 5 22
20
0 0 18
700 800 900 1000 1100 0.7 0.8 0.9 1 1.1
FREQUENCY (MHz) FREQUENCY (GHz)
Figure 77.Conversion gain, IIP3 and OIP3 for 900MHz RF frequency band. [1]
18 30
40
INPUT IP3
38
15 25
36
CONVERSION GAIN (dB)
TRANSCEIVERS - Rx RFICs
20 34
12
32
OIP3(dBm)
IIP3 (dBm)
9 15 30
28
6 10 26
CONVERSION GAIN 24
3 5 22
20
TE
0 0
18
1700 1800 1900 2000 2100 2200 1.7 1.8 1.9 2 2.1 2.2
FREQUENCY (MHz) FREQUENCY (GHz)
Figure 78.Conversion Gain, IIP3 and OIP3 for 1900MHz RF frequency band. [1]
18 30
15
INPUT IP3
LE
25
40
38
36
CONVERSION GAIN (dB)
34
12 20
32
OIP3(dBm)
IIP3 (dBm)
9 15 30
28
6 10 26
24
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CONVERSION GAIN
3 5 22
20
0 0 18
2300 2400 2500 2600 2700 2.3 2.4 2.5 2.6 2.7
FREQUENCY (MHz) FREQUENCY (GHz)
Figure 79. Conversion Gain, IIP3 and OIP3 for 2500MHz RF frequency bands. [1]
B
TRANSCEIVERS - Rx RFICs
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Figure 80. Application Circuit for Narrowband RF Input Matching
It is recommended to use high side LO injection for RF frequencies below 1.2 GHz for better IIP3. For
instance, higher IIP3 can be obtained if LO input is driven with high side at RF=900 MHz. Please refer to
Figure 81.
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31
29
27
25
IIP3 (dBm)
23
21
19
B
17
15
0.7 1.1 1.5 1.9 2.3 2.7 3.1 3.5
FREQUENCY (GHz)
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Figure 81. Input IP3 vs. High Side LO & Low Side LO @ VGATE=4.8V
31
29
27
25
IIP3 (dBm)
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23
21
19
17
15
-10 -8 -6 -4 -2 0
RF POWER (dBm)
LE 1900 MHz
Figure 82. IIP3 vs. RF Input Power, RF= 1900 MHz, IF= 150 MHz, VGATE= 4.8V
TRANSCEIVERS - Rx RFICs
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Figure 83. Loop filter components for HMC1190LP6GE is configured as PLL alone used with external VCO
HMC384LP4E
-40
-60
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PHASE NOISE(dBc/Hz)
-80
-100
-120
-140
SO
-160
-180
1 10 100 1000 10000
OFFSET (KHz)
Figure 84. Closed Loop Phase Noise with External HMC384LP4E VCO @ 2200 MHz.
For detailed theory of operation of PLL/VCO, please refer to the “PLLs with Integrated VCOs - RF VCOs Operating
B
Guide”.
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