SONY CXG1082EN

CXG1082EN
Receive Dual Low Noise Amplifier/Mixer
For the availability of this product, please contact the sales office.
Description
The CXG1082EN is a receive dual low noise amplifier/
mixer MMIC. This IC is designed using the Sony’s
GaAs J-FET process.
16 pin VSON (Plastic)
Features
• High conversion gain: Gp = 17dB (LNA Typ.)
Gc = 11 to 12dB (MIX Typ.)
• Low noise figure:
NF = 1.5dB (LNA Typ.)
NF = 4.2dB (MIX Typ.)
• Single 3V power supply operation
• Low LO input power operation PLO = –15dBm
• Single CTL pin achieved by the built-in inverter
circuit
• 16-pin VSON package
Absolute Maximum Ratings (Ta = 25°C)
• Supply voltage
VDD
4.5
V
• Input power
PIN
+13
dBm
• Current consumption IDD
15
mA
• Operating temperature Topr
–35 to +85
°C
• Storage temperature Tstg
–65 to +150
°C
Applications
800MHz Japan digital cellular telephones (PDC)
Recommended Operating Voltages
• Supply voltage
VDD
2.7 to 3.3
• Control voltage
Structure
GaAs J-FET MMIC
Block Diagram
LNA RFIN1
9
Pin Configuration
8
6
3
IFOUT 16
VCTL (H) 2.4 to 3.3
VCTL (L) 0 to 0.3
V
V
V
1
LNA RFIN2
9
8
LNA RFIN2
CAP 10
7
CAP
GND 11
6
LNA RFOUT/VDD1 (LNA)
CTL 12
5
GND
GND 13
4
OPT
GND 14
3
MIX RFIN
VDD2 (LO AMP) 15
2
GND
IFOUT/VDD3 (MIX) 16
1
LO IN
LNA RFIN1
LNA RFOUT
MIX RFIN
LO IN
GaAs MMICs are ESD sensitive devices. Special handling precautions are required.
Sony reserves the right to change products and specifications without prior notice. This information does not convey any license by
any implication or otherwise under any patents or other right. Application circuits shown, if any, are typical examples illustrating the
operation of the devices. Sony cannot assume responsibility for any problems arising out of the use of these circuits.
–1–
E00408-PS
CXG1082EN
Electrical Characteristics
Conditions: VDD = 3.0V, VCTL (H) = 3.0V, VCTL (L) = 0V, fRF1 = 870MHz, fRF2 = 820MHz, fLO = fRF – 130MHz,
PLO = –15dBm, Ta = 25°C, unless otherwise specified
Low Noise Amplifier Block
Item
Symbol
Current
consumption
IDD
Control current
ICTL
RF frequency VCTL
Path
—
—
RFIN1 → RFOUT
Power gain
Noise figure
Input IP3
Isolation
IIP3
Iso
Typ.
Max.
—
H
—
1.9
2.5
—
L
—
1.9
2.5
—
H
—
55
80
—
L
–1
0
—
H
15
17
19
L
—
–20
–15
H
—
–25
–20
L
15
17
19
fRF1
Gp
NF
Min.
RFIN2 → RFOUT
fRF2
RFIN1 → RFOUT
fRF1
H
—
1.5
2.0
RFIN2 → RFOUT
fRF2
L
—
1.5
2.0
RFIN1 → RFOUT
fRF1
H
–13
–9
—
RFIN2 → RFOUT
fRF2
L
–13
–9
—
RFOUT → RFIN1
fRF1
H
17
22
—
RFOUT → RFIN2
fRF2
L
18
23
—
Unit
Measurement
condition
mA
When no
signal
µA
dB
When a
small signal
dB
dBm
∗1
dBm
When a
small signal
Mixer Block
Item
Symbol
Current consumption
IDD
Power gain
Gc
Noise figure
NF
Input IP3
IIP3
LO to RF leak level
Plk
RF frequency
Min.
Typ.
Max.
Unit
Measurement condition
—
—
4.5
6.0
mA
When no signal
fRF1
10
12
14
fRF2
9
11
13
fRF1
—
4.2
6.0
fRF2
—
4.2
6.0
fRF1
–4.0
–1.0
—
fRF2
–3.5
–0.5
—
fRF1
—
–31
–26
fRF2
—
–31
–26
dB
When a small signal
dB
dBm
dBm
∗1
fLO = 740MHz
fLO = 690MHz
The values shown above are the specified values on the Sony’s recommended evaluation board. (When no
option pin resistor is added.)
∗1 Conversion from the IM3 suppression ratio for two-wave input: PRF = –30dBm (low noise amplifier block)/
–25dBm (mixer block) at fRFoffset = 100kHz.
–2–
CXG1082EN
Recommended Evaluation Circuit
LNA RFIN1
50Ω
L13
L4
L5
9
8
10
7
11
6
12
5
L14
C6
L6
50Ω
L15
C9
CTL
LNA RFIN2
L11
C8
LNA RFOUT
50Ω
L12
4
13
L3
IFOUT
C4
C2
50Ω
L8
L1
L2
C7
3
14
VDD2 (LO AMP)
C5
VDD1 (LNA)
R1
15
2
16
1
L9
MIX RFIN
50Ω
L10
C1
L7
VDD3 (MIX)
LOIN
50Ω
C3
L1
150nH
L11
18nH
C6
18pF
L2
120nH
L12
10nH
C7
1000pF
L3
33nH
L13
22nH
C8
100pF
L4
18nH
L14
5.6nH
C9
56pF
L5
6.8nH
L15
22nH
R1
L6
27nH
C1
6pF
L7
33nH
C2
1000pF
L8
27nH
C3
1000pF
L9
5.6nH
C4
100pF
L10
12nH
C5
1000pF
–3–
CXG1082EN
Example of Representative Characteristics (Ta = 25°C)
Low Noise Amplifier Block
Path RFIN1 → RFOUT
Gp, NF vs. fRF
Path RFIN2 → RFOUT
Gp, NF vs. fRF
Gp
17.5
2.5
16.5
16
2
15.5
15
1.5
3
VDD = 3V
VCTL = 0V
2.5
17
Gp – Power gain [dB]
Gp – Power gain [dB]
17
NF – Noise figure [dB]
17.5
18
3
VDD = 3V
VCTL = 3V
Gp
16.5
16
2
15.5
15
1.5
NF
14.5
14
800
NF
14.5
820
860
840
880
14
800
1
900
820
fRF – RF frequency [MHz]
20
10
10
–10
–20
–30
–40
–50
IM3
VDD = 3V
VCTL = 3V
fRF1 = 870MHz
fRF2 = 870.1MHz
–60
–70
–80
–20
–10
0
POUT – RF output power [dBm]
POUT – RF output power [dBm]
0
POUT
–30
860
880
1
900
Path RFIN2 → RFOUT
POUT, IM3 vs. PIN
20
–90
–40
840
fRF – RF frequency [MHz]
Path RFIN1 → RFOUT
POUT, IM3 vs. PIN
0
NF – Noise figure [dB]
18
–20
–30
–40
–50
IM3
PIN – RF input power[dBm]
VDD = 3V
VCTL = 0V
fRF1 = 820MHz
fRF2 = 820.1MHz
–60
–70
–80
–90
–40
10
POUT
–10
–30
–20
–10
0
PIN – RF input power[dBm]
–4–
10
CXG1082EN
Mixer Block
Gc, NF vs. fRF
7
15
VDD = 3V
fLO = fRF – 130MHz
PLO = –15dBm
13
6.5
6
Gc
12
5.5
11
5
10
4.5
NF
9
4
8
3.5
7
3
6
2.5
5
800
820
840
860
880
NF – Noise figure [dB]
Gc – Conversion gain [dB]
14
2
900
fRF – RF frequency [MHz]
Gc, NF vs. PLO
Gc, NF vs. PLO
5.3
14
5.1
13
12
4.9
11
4.7
10
4.5
9
4.3
NF
8
4.1
Gc – Conversion gain [dB]
13
Gc
NF – Noise figure [dB]
Gc – Conversion gain [dB]
14
VDD = 3V
fRF1 = 870MHz
fRF2 = 870.1MHz
fLO = 740MHz
5.5
15
VDD = 3V
fRF1 = 820MHz
fRF2 = 820.1MHz
fLO = 690MHz
5.3
5.1
Gc
12
4.9
11
4.7
10
4.5
9
4.3
8
4.1
NF
7
3.9
7
3.9
6
3.7
6
3.7
3.5
5
–25
5
–25
–20
–15
–10
–5
0
PLO – LO input power [dBm]
3.5
–20
–15
–10
–5
PLO – LO input power [dBm]
–5–
0
NF – Noise figure [dB]
5.5
15
CXG1082EN
0.5
–26
0.5
–26
–27
0
IIP3
–0.5
–28
–1
–29
–1.5
–30
PLK
–2
–31
–2.5
–32
VDD = 3V
fRF1 = 870MHz
fRF2 = 870.1MHz
fLO = 740MHz
–3
–3.5
–4
–25
–20
–15
–10
–5
IIP3 – Input IP3 [dBm]
–25
PLK – LO leak power [dBm]
1
0
IIP3 – Input IP3 [dBm]
IIP3, PLK vs. PLO
–25
–0.5
–28
–1
–29
–1.5
–30
–2
–31
–2.5
–33
–3
–34
–3.5
–35
–4
–25
0
PLO – LO input power [dBm]
POUT, IM3 vs. PIN
10
10
–33
–34
–35
–20
–15
–10
–5
0
0
POUT
–20
–30
–40
IM3
–50
VDD = 3V
fRF1 = 870MHz
fRF2 = 870.1MHz
fLO = 740MHz
PLO = –15dBm
–60
–70
–30
–20
–10
0
POUT – IF output power, IM3 [dBm]
0
POUT – IF output power [dBm]
VDD = 3V
fRF1 = 820MHz
fRF2 = 820.1MHz
fLO = 690MHz
POUT, IM3 vs. PIN
20
–80
–40
–32
PLK
PLO – LO input power [dBm]
20
–10
–27
IIP3
PLK – LO leak power [dBm]
IIP3, PLK vs. PLO
1
10
PIN – RF input power [dBm]
POUT
–10
–20
–30
–40
IM3
–50
VDD = 3V
fRF1 = 820MHz
fRF2 = 820.1MHz
fLO = 690MHz
PLO = –15dBm
–60
–70
–80
–40
–30
–20
–10
0
PIN – RF input power [dBm]
–6–
10
CXG1082EN
Example of Characteristics for Option Resistance R1 Changed (Ta = 25°C)
IDD3 – Mixer block current consumption (MIX) [mA]
Mixer Block
IDD3 (MIX) vs. R1
10
VDD = 3V
8
6
4
2
OPEN 1200
680
470
390
330
270
220
R1 – Option resistance [Ω]
Gc, NF vs. R1
Gc, NF vs. R1
14
Gc – Conversion gain, NF-Noise figure [dB]
GC
12
10
VDD = 3V
fRF = 870MHz
fLO = 740MHz
PLO = –15dBm
8
6
NF
4
2
OPEN 1200
680
470
390
330
270
12
GC
10
VDD = 3V
fRF = 820MHz
fLO = 690MHz
PLO = –15dBm
8
6
NF
4
2
OPEN 1200
220
R1 – Option resistance [Ω]
IIP3, PLK vs. R1
IIP3
–29
PLK
0
–30
–1
–31
680
470
390
330
R1 – Option resistance [Ω]
270
2
IIP3 – Input IP3 [dBm]
–28
1
–2
OPEN 1200
390
330
270
220
–27
3
PLK – LO leak power [dBm]
IIP3 – Input IP3 [dBm]
2
470
IIP3, PLK vs. R1
–27
3
VDD = 3V
fRF = 870MHz
fLO = 740MHz
PLO = –15dBm
680
R1 – Option resistance [Ω]
VDD = 3V
fRF = 820MHz
fLO = 690MHz
PLO = –15dBm
–7–
–28
–29
1
–30
0
PLK
–31
–1
–2
OPEN 1200
–32
220
IIP3
680
470
390
330
R1 – Option resistance [Ω]
270
–32
220
PLK – LO leak power [dBm]
Gc – Conversion gain, NR-Noise figure [dB]
14
CXG1082EN
Recommended Evaluation Board
50mm
Front
50mm
LNA RFIN1
LNA RFIN2
IFOUT
LNA RFOUT
LO IN
MIX RFIN
CTL
VDD2
GND
VDD3
VDD1
Glass fabric-base 4-layer epoxy board (thickness: 0.2mm × 2)
GND for the whole 2nd and 3rd layers
Enlarged Diagram of Center Part
L5
L15
L14
L6
L4
L13
C6
C9
C8
L12
L11
C5
C4
C7
L3
L8
L7
C1
L1
L2
C3
C2
–8–
L10 L9
CXG1082EN
Package Outline
Unit: mm
16PIN VSON(PLASTIC)
0.9 MAX
0.6
3.5
0.05 S
A
B
0.4
2x
0.35 ± 0.1
0.2 S B
4x
0.2 S A B
0.03 ± 0.03
0.2 ± 0.01
0.05 M S A-B
0.23 ± 0.02
1.4
0.5 ± 0.2
2.7
2.5
0.35 ± 0.1
S
Soldrer Plating
0.13 ± 0.025
+ 0.09
0.14 – 0.03
NOTE: 1) The dimensions of the terminal section apply to the
ranges of 0.1mm and 0.25mm from the end of a terminal.
TERMINAL SECTION
PACKAGE STRUCTURE
PACKAGE MATERIAL
EPOXY RESIN
LEAD TREATMENT
SOLDER PLATING
EIAJ CODE
LEAD MATERIAL
COPPER ALLOY
JEDEC CODE
PACKAGE MASS
0.02 g
SONY CODE
VSON-16P-01
–9–
Sony Corporation