Datasheet AA022N1-65 Datasheet (ALPHA)

Page 1
Alpha Industries, Inc. [781] 935-5150 • Fax [617] 824-4579 Email sales@alphaind.com www.alphaind.com 1
Specifications subject to change without notice. 2/00A
20–24 GHz Low Noise Amplifier
Features
3.2 dB Noise Figure
17 dB Gain
+9 dBm Output Power
Hermetic Package with Solderable Leads
100% RF and DC Testing
AA022N1-65
Description
The AA022N1-65 is a broadband millimeterwave amplifier in a hermetic package. The amplifier is designed for use in millimeterwave communication and sensor systems as the receiver front-end, transmitter gain stage, or local oscillator gain stage when high gain, wide dynamic range, and low noise figure are required. The solder-sealed hermetic package provides excellent electrical performance, excellent thermal performance, and complete environmental protection for long-term reliability. A single supply voltage simplifies bias requirements. All amplifiers are screened at the operating frequencies prior to shipment for guaranteed performance. The amplifier is targeted for millimeterwave point-to-point and point-to­multipoint wireless communications systems.
Parameter Symbol Min. Typ. Max. Unit
Bandwidth BW 20 19–25 24 GHz
Small Signal Gain G1517 dB
Noise Figure NF 3.2 3.9 dB
Input Return Loss RL
I
8dB
Output Return Loss RL
O
11 dB
Output Power at 1 dB Gain Compression P
1 dB
9 dBm
Temperature Coefficient of Gain dG/dT -0.028 dB/C
Electrical Specifications at 25°C (VD= 5.5 V)
Parameter Symbol Min. Typ. Max. Unit
Drain Current I
D
60 90 mA
DC
RF
Pin Out
RF In RF Out
V
DD
YYWW
AA022N1-65
RF In RF Out
V
D
N/CN/C
Page 2
20–24 GHz Low Noise Amplifier AA022N1-65
2 Alpha Industries, Inc. [781] 935-5150 Fax [617] 824-4579 Email sales@alphaind.com • www.alphaind.com
Specifications subject to change without notice. 2/00A
Characteristic Value
Operating Temperature (TC) -55°C to +90°C
Storage Temperature (TST) -65°C to +150°C
Bias Voltage (VD)6 V
DC
Power In (PIN) 13 dBm
Absolute Maximum Ratings
0
5
10
15
20
25
10 15 20 25 30
Gain (dB)
Frequency (GHz)
Gain vs. Frequency
-55˚C
+85˚C
+25˚C
2
3
4
5
6
Noise Figure (dB)
Frequency (GHz)
Noise Figure vs. Frequency
20 21 22 23 24
-20
-15
-10
-5
0
10 15 20 25 30
Return Loss (dB)
Frequency (GHz)
Return Loss vs. Frequency
S
22
S
11
Typical Performance Data
Outline
0.106 (2.69 mm)
0.053
(1.35 mm)
0.272
(6.91 mm)
± 0.002
0.194 (4.92 mm)
0.053
(1.35 mm)
0.445
(11.30 mm)
± 0.002
0.318
(8.08 mm)
± 0.002
CW-10
MATERIAL
0.164 (4.16 mm)
0.115 (2.92 mm) ± 0.002
0.388 (9.86 mm)
0.328 (8.33 mm)
0.075 (1.91 mm) ± 0.010
0.010 (0.25 mm) ± 0.001
0.378 (9.60 mm) ± 0.003
0.070 (1.78 mm)
KOVAR
0.065
(1.65 mm)
MAX.
0.005
(0.13 mm)
± 0.001
0.015
(0.38 mm)
0.010
(0.25 mm)
± 0.002
CERAMIC
Page 3
20–24 GHz Low Noise Amplifier AA022N1-65
Alpha Industries, Inc. [781] 935-5150 • Fax [617] 824-4579 Email sales@alphaind.com www.alphaind.com 3
Specifications subject to change without notice. 2/00A
Typical S-Parameters at 25°C (VD= 5.5 V)
Frequency
S
11
S
21
S
12
S
22
(GHz) Mag. Ang. Mag. Ang. Mag. Ang. Mag. Ang.
5.0 -0.23 154.65 -43.85 86.28 -45.99 85.59 -0.02 64.98
7.0 -0.23 -111.06 -37.45 56.97 -51.79 -104.35 -0.05 159.26
9.0 -0.08 13.10 -8.78 102.07 -44.05 66.64 -0.61 -116.95
11.0 -0.65 104.53 8.89 152.07 -37.56 -114.12 -1.01 -40.73
12.0 -0.99 -48.85 15.42 -26.69 -47.14 130.43 -0.42 168.72
13.0 -0.51 166.36 15.79 157.28 -49.08 37.53 -9.57 22.43
14.0 -0.10 55.47 16.34 -5.38 -47.31 112.82 -10.10 24.64
15.0 -0.67 -55.35 15.16 -139.82 -37.37 -47.11 -27.18 -136.61
16.0 -0.63 156.89 16.13 84.35 -40.46 -161.21 -14.25 51.89
17.0 -0.10 18.10 15.92 -48.83 -44.76 90.70 -10.82 -54.46
18.0 -0.83 -83.22 15.81 -169.31 -43.32 6.41 -21.13 -167.32
19.0 -4.28 152.57 17.65 60.67 -36.37 -126.11 -25.24 -155.34
20.0 -5.74 -61.50 17.80 -95.05 -35.20 98.48 -12.39 -88.92
21.0 -6.01 -179.42 16.90 133.41 -35.38 -12.60 -11.58 144.87
22.0 -9.01 88.52 16.55 14.42 -34.87 -115.99 -16.93 44.72
23.0 -19.60 48.18 16.75 -110.63 -31.84 151.62 -15.07 -156.77
24.0 -9.00 -41.19 18.64 127.32 -30.18 33.65 -12.31 56.67
25.0 -5.49 147.20 17.87 -32.70 -32.94 -79.66 -16.74 109.43
26.0 -5.53 -9.75 19.57 -165.11 -36.65 -80.66 -8.81 -38.71
27.0 -8.00 -45.79 17.63 87.22 -35.32 98.43 -20.32 -13.38
28.0 -9.41 -22.84 19.14 -81.69 -28.71 77.45 -0.46 -21.58
29.0 -2.80 -165.39 11.16 135.62 -25.82 -63.56 -2.14 -149.84
30.0 -2.33 100.83 6.39 21.60 -28.49 -164.40 -5.02 115.71
32.0 -2.61 -97.59 -0.47 151.84 -29.33 -9.95 -2.70 -119.75
34.0 -1.05 62.48 -4.75 -49.44 -42.31 -155.10 -2.59 74.44
36.0 -5.37 -174.78 -2.17 42.82 -37.64 -35.81 -8.87 -99.71
38.0 -2.11 -176.06 -16.06 -112.92 -48.35 -143.83 -2.90 44.51
40.0 -2.85 -79.93 -11.61 5.61 -31.46 -46.85 -1.07 -108.06
Page 4
20–24 GHz Low Noise Amplifier AA022N1-65
4 Alpha Industries, Inc. [781] 935-5150 Fax [617] 824-4579 Email sales@alphaind.com • www.alphaind.com
Specifications subject to change without notice. 2/00A
Leaded Millimeterwave Package Handling and Mounting
The leaded millimeterwave package requires careful mounting design to maintain optimal performance.
Handling
The leaded millimeterwave package is extremely rugged. Care should be exercised when handling with metal tools. Only personnel trained in both ESD precautions and handling precautions should be allowed to handle these packages.
Package Construction
The construction of the leaded millimeterwave package consists of a metal base and ceramic walls. The package is topped by a solder-sealed metal lid. All metal parts are gold-plated.
Mounting Design
The leaded millimeterwave package is mounted by placing it in a hole cut in a printed circuit board. The bottom of the package leads should be in the same plane as the top surface of the printed circuit board traces.The hole should be cut as close as possible to the outer dimensions of the
package to minimize the gap between package and printed circuit board. The gap should be no more than
0.005" (0.127 mm). The base of the package should be mounted directly to a surface that provides a good ground plane for the printed circuit board and provides a good thermal ground.
Mounting the Package
The leaded millimeterwave package should be attached to its mounting surface using a silver-filled conductive paste epoxy or solder. Care should be taken to ensure that there are no voids or gaps in the epoxy or solder underfill so that a good ground contact is maintained.
Screw hardware attachment should be used in addition to epoxy or solder in situations where additional mechanical integrity is desired. Care should be exercised when tightening screws because over-tightening could deform the package base.
Connecting the Package
Connection of the package leads to the printed circuit board traces is accomplished with solder.Attached leads should lie flat upon the printed circuits board traces. Package leads can be trimmed if desired.
Leaded Millimeterwave Package Mounting
Printed Circuit Board
Rogers 4003
0.008" (0.20 mm) Thick
Electrically & Thermally
Conductive Ground Plane
Minimize RF
Gap Widths
Soldered Leads
RF In
RF Out
DC Connection
0–80 Screw
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