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PF0030 Series
MOS FET Power Amplifier
ADE-208-460 (Z) 1st. Edition July 1996 Features
* * * * * * High stability: Load VSWR = 20 : 1 Low power control current: 400 A Thin package: 5 mmt
Ordering Information
Type No PF0030 PF0032 Operating Frequency 824 to 849 MHz 872 to 905 MHz Application AMPS E-TACS
Pin Arrangement
* RF-B2 5 4 3 2 5 1 1: Pin 2: VAPC 3: VDD 4: Pout 5: GND
PF0030 Series
Internal Diagram and External Circuit
G GND Pin1 Pin Pin2 VAPC Pin3 VDD Pin4 Pout
G GND
Z1
C1
FB1
C3
FB2
C2
Z2
Pin
VAPC
VDD
Pout
C1 = C2 = 0.01 F (Ceramic chip capacitor) C3 = 10 F (Aluminum Electrolyte Capacitor) FB = Ferrite bead BL01RN1-A62-001 (Manufacture: MURATA) or equivalent Z1 = Z2 = 50 (Microstrip line)
Absolute Maximum Ratings (Ta = 25C)
Item Supply voltage Supply currentA@ APC voltage Input power Operating case temperature Storage temperature Symbol VDD IDD VAPC Pin Tc (op) Tstg Rating 17 3 8 20 -30 to +110 -40 to +110 Unit V A V mW C C
PF0030 Series
Electrical Characteristics (Ta = 25C)
Item Drain cutoff current Total efficiency 2nd harmonic distortion 3rd harmonic distortion Input VSWR Output VSWR Stability Symbol IDS T 2nd H.D. 3rd H.D. VSWR (in) Min -- 35 -- -- -- Typ -- 40 -50 -50 1.5 1.5 Max 500 -- -30 -30 3 -- Unit A % dB dB -- -- -- Pin = 2 mW, VDD = 12.5 V, Pout = 6 W (at APC controlled), Zin = 50 , Output VSWR = 20:1 All phases, t = 20 sec Test Condition VDD = 17 V, VAPC = 0 V Pin = 2 mW, VDD = 12.5 V, Pout = 6 W (at APC controlled) Zin = Zout = 50
VSWR (out) -- --
No parasitic oscillation
Test System Diagram
S.G Power Meter L.P.F 3dB ATT
VAPC VDD Spectrum Analyzer Test Fixture Directional Coupler Directional Coupler
Power Meter
PF0030 Series
Test Fixture Pattern
Unit: mm
26.5 3.5 2.88 16 4.5 3 2.88 64 28 4
VAPC
VDD 80 3.5
1.5
2.88
4
4 15 100 Grass Epoxy Double sided PCB (t = 1.6 mm, r = 4.8)
Mechanical Characteristics
Item Torque for screw up the heatsink flange Warp size of the heatsink flange: S Conditions M3 Screw Bolts Spec 4 to 6 kg*cm S=0 +0.3/-0 mm S
16.5
4
2.88
PF0030 Series
Note for Use
* * * * * * * * * * * * * * * * * Unevenness and distortion at the surface of the heatsink attached module should be less than 0.05 mm. * It should not be existed any dust between module and heatsink. * MODULE should be separated from PCB less than 1.5 mm. * Soldering temperature and soldering time should be less than 230C, 10 sec. (Soldering position spaced from the root point of the lead frame: 2 mm) * Recommendation of thermal joint compounds is TYPE G746. (Manufacturer: Shin-Etsu Chemical, Co., Ltd.) * To protect devices from electro-static damage, soldering iron, measuring-equipment and human body etc. should be grounded. * Torque for screw up the heatsink flange should be 4 to 6 kg * cm with M3 screw bolts. * Don't solder the flange directly. * It should make the lead frame as straight as possible. * The module should be screwed up before lead soldering. * It should not be given mechanical and thermal stress to lead and flange of the module. * When the external parts (Isolator, Duplexer, etc.) of the module are changed, the electrical characteristics should be evaluated enough. * Don't washing the module except lead pins. * To get good stability, ground impedance between the module GND flange and PCB GND pattern should be designed as low as possible.
PF0030 Series
Characteristics Curve
PF0030
Pout, T vs. VDD (1) 20 T 16 Output Power Pout (W) 40 Efficiency T (%) Efficiency T (%) 50
12
30
8 Pout 4 f = 824 MHz Pin = 2 mW VAPC = 4 V 0 4 8 12 16 Supply Voltage VDD (V)
20
10
0
0 20
Pout, T vs. VDD (2) 20 50
16 Output Power Pout (W) T 12
40
30
8 Pout 4 f = 849 MHz Pin = 2 mW VAPC = 4 V 0 4 8 12 16 Supply Voltage VDD (V)
20
10
0
0 20
PF0030 Series
PF0030 (cont)
VAPC, T, VSWR (in) vs. Frequency 6 10 Pin = 2 mW VDD = 12.5 V Pout = 6 W 5 Apc Voltage VAPC (V) 8 T 50 Efficiency T (%) Efficiency T (%) 60
V.S.W.R. (in)
4
6
40
3
4 VAPC 2 VSWRin
30
2
20
1
0 824
829
834
839
844
10 849
Frequency f (MHz)
Pout, T, VSWR (in) vs. Frequency 6 20 Pin = 2 mW VDD = 12.5 V VAPC = 4 V T 12 40 60
5 Output Power Pout (W)
16
50
V.S.W.R. (in)
4
3
8 Pout 4 VSWRin
30
2
20
1
0 824
829
834
839
844
10 849
Frequency f (MHz)
PF0030 Series
PF0030 (cont)
Pout, T vs. Pin (1) 20 T 60
16
Output Power Pout (W)
50
Efficiency T (%) Efficiency T (%)
12 Pout 8
40
30
4
f = 824 MHz 20 VDD = 12.5 V VAPC = 4 V 0 2 4 6 8 10 10
0
Input Power Pin (mW)
Pout, T vs. Pin (2) 20 60
16
Output Power Pout (W)
T
50
12 Pout 8
40
30
4
f = 849 MHz 20 VDD = 12.5 V VAPC = 4 V 0 2 4 6 8 10 10
0
Input Power Pin (mW)
PF0030 Series
PF0030 (cont)
Pout, T vs. VAPC (1) 20 T 50
16
40
Output Power Pout (W)
12 Pout 8
30
20
4
f = 824 MHz Pin = 2 mW VDD = 12.5 V 0 2 4 6 Apc Voltage VAPC (V) 8
10
0
0 10
Pout, T vs. VAPC (2) 20 T 16 Output Power Pout (W) 40 Efficiency T (%) 50
12 Pout 8
30
20
4
f = 849 MHz Pin = 2 mW VDD = 12.5 V 0 2 4 6 Apc Voltage VAPC (V) 8
10
0
0 10
Efficiency T (%)
PF0030 Series
PF0030 (cont)
T vs. TC (1) 70 f = 824 MHz 60 Efficiency T (%) VDD = 12.5 V Pin = 2 mW Pout = 6 W
50
40
30
20 -40
0
40
80
120
Case Temperature TC (C)
T vs. TC (2) 70 f = 849 MHz 60 Efficiency T (%) VDD = 12.5 V Pin = 2 mW Pout = 6 W
50
40
30
20 -40
0
40
80
120
Case Temperature TC (C)
PF0030 Series
PF0030 (cont)
Pout vs. TC (1) f = 824 MHz 20 Output Power Pout (W) VDD = 12.5 V Pin = 2 mW VAPC = 7.0 V
10
0 -40
0
40
80
120
Case Temperature TC (C)
Pout vs. TC (2) f = 849 MHz 20 Output Power Pout (W) VDD = 12.5 V Pin = 2 mW VAPC = 7.0 V
10
0 -40
0
40
80
120
Case Temperature TC (C)
PF0030 Series
PF0032
Pout, T vs. VDD (1) 20 60
16
50
Output Power Pout (W)
12
40
8 Pout 4 f = 872 MHz Pin = 2 mW VAPC = 4 V 0 4 8 12 16 Supply Voltage VDD (V)
30
20
0
10 20
Pout, T vs. VDD (2) 20 60
16 Output Power Pout (W)
50 Efficiency T (%)
12
T
40
8
30
4
Pout f = 905 MHz Pin = 2 mW VAPC = 4 V
20
0
0
4
8 12 16 Supply Voltage VDD (V)
10 20
Efficiency T (%)
T
PF0030 Series
PF0032 (cont)
VAPC, T, VSWR (in) vs. Frequency 6 10 Pin = 2 mW VDD = 12.5 V Pout = 6 W 5 Apc Voltage VAPC (V) 8 T 6 40 Efficiency T (%) Efficiency T (%) 50 60
V.S.W.R. (in)
4
3
4 VAPC 2 VSWRin
30
2
20
1
0 872
883
894
10 905
Frequency f (MHz)
Pout, T, VSWR (in) vs. Frequency 6 20 Pin = 2 mW VDD = 12.5 V VAPC = 4 V T 12 40 60
5 Output Power Pout (W)
16
50
V.S.W.R. (in)
4
3
8 Pout 4 VSWRin
30
2
20
1
0 872
883
894
10 905
Frequency f (MHz)
PF0030 Series
PF0032 (cont)
Pout, T vs. Pin (1) 20 60
16 Output Power Pout (W)
T
50 Efficiency T (%) Efficiency T (%)
12 Pout 8
40
30
4
f = 872 MHz 20 VDD = 12.5 V VAPC = 4 V 0 2 4 6 Input Power Pin (mW) 8 10 10
0
Pout, T vs. Pin (2) 20 60
16 Output Power Pout (W) T
50
12
40
8
Pout
30
4
f = 905 MHz 20 VDD = 12.5 V VAPC = 4 V 0 2 4 6 Input Power Pin (mW) 8 10 10
0
PF0030 Series
PF0032 (cont)
Pout, T vs. VAPC (1) 20 60
16
50 T
Output Power Pout (W)
12 Pout 8
40
30
4
f = 872 MHz Pin = 2 mW VDD = 12.5 V 0 2 4 6 Apc Voltage VAPC (V) 8
20
0
10 10
Pout, T vs. VAPC (2) 20 60
16 Output Power Pout (W)
50 Efficiency T (%)
12 T 8 Pout 4 f = 905 MHz Pin = 2 mW VDD = 12.5 V 0 2 4 6 Apc Voltage VAPC (V) 8
40
30
20
0
10 10
Efficiency T (%)
PF0030 Series
PF0032 (cont)
T vs. TC (1) 70 f = 872 MHz 60 Efficiency T (%) VDD = 12.5 V Pin = 2 mW Pout = 6 W
50
40
30
20 -40
0
40
80
120
Case Temperature TC (C)
T vs. TC (2) 70 f = 905 MHz 60 Total Efficiency T (%) VDD = 12.5 V Pin = 2 mW Pout = 6 W
50
40
30
20 -40
0
40
80
120
Case Temperature TC (C)
PF0030 Series
PF0032 (cont)
Pout vs. TC (1) f = 872 MHz 20 Output Power Pout (W) VDD = 12.5 V Pin = 2 mW VAPC = 7.0 V
10
0 -40
0
40
80
120
Case Temperature TC (C)
Pout vs. TC (2) f = 905 MHz 20 Output Power Pout (W) VDD = 12.5 V Pin = 2 mW VAPC = 7.0 V
10
0 -40
0
40
80
120
Case Temperature TC (C)
PF0030 Series
Package Dimensions
Unit: mm
12.7 0.5 11.0 0.3
60.5 0.5 57.5 0.5
R1.6
1 2.3 0.2
0.6 5.0 + 0.3 -
2
3
45
49.8 0.5 3.3 9.2 1 8.0 1 Hitachi code EIAJ code JEDEC code RF-B2 -- -- 0.25 22.0 1
13.0 1
51
0.3 0.5 + 0.2 -
6.35 0.5

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