Document
SDLVAs - SMT
v02.0913
Typical Applications
The HMC1013LP4E is ideal for: • EW, ELINT & IFM Receivers • DF Radar Systems • ECM Systems • Broadband Test & Measurement • Power Measurement & Control Circuits • Military & Space Applications
Functional Diagram
HMC1013LP4E
SUCCESSIVE DETECTION LOG VIDEO AMPLIFIER (SDLVA), 0.5 - 18.5 GHz
Features
High Logging Range: 67 dB (-62 to +5 dBm) Output Frequency Flatness: ±2 dB Log Linearity: ±2 dB Fast Rise/Fall Times: 5/15 ns Single Positive Supply: +3.3V ESD Sensitivity (HBM): Class 1A 24 Lead 4x4mm SMT Package: 16mm2
General Description
The HMC1013LP4E is a Successive Detection Log Video Amplifier which operates from 0.5 to 18.5 GHz. The HMC1013LP4E provides a logging range of 67 dB. This device offers typical fast rise/fall times of 5/15 ns and a superior delay time of only 10 ns. The HMC1013LP4E log video output slope is typically 15 mV/dB. Maximum recovery times are less than 40 ns. The HMC1013LP4E is available in a highly compact 4x4 mm SMT plastic package and is ideal for high speed channelized receiver applications.
Electrical Specifications, TA = +25 °C Vcc1 = Vcc2 = Vcc3= +3.3V, EN=3.3V
Parameter Input Frequency Range [1] Frequency Flatness Log Linearity Log Linearity over Temperature Minimum Logging Range Maximum Logging Range Input Return Loss Log Video Minimum Output Voltage Log Video Maximum Output Voltage Log Video Output Rise Time Log Video Output Fall Time Log Video Recovery Time Log Video Output Slope Log Video Output Slope Variation over Temperature Log Video Propagation Delay Supply Current (Icc1) Supply Current (Icc2) Supply Current (Icc3) [1] Video output load should be 1K Ohm or higher.
Conditions
Pin = -60 to +5 dBm to ±3 dB error to ±3 dB error
10% to 90% 90% to 10% @ 10 GHz @ 10 GHz
Typ. 0.5 - 18.5
±2 ±2 ±2 -62 +5 8 0.9 1.9 5 15 38 15 6.2 10 7 90 86
Units GHz dB dB dB dBm dBm dB
V V ns ns ns mV/dB µV/dB°C ns mA mA mA
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SDLVAs - SMT
v02.0913
HMC1013LP4E
SUCCESSIVE DETECTION LOG VIDEO AMPLIFIER (SDLVA), 0.5 - 18.5 GHz
ERROR (dB)
Error Flatness vs. Input Power Over Frequency [1] [2]
8
6
1 GHz
10 GHz
2 GHz
14 GHz
4
6 GHz
18 GHz
ERROR (dB)
2
0
-2
-4
-6
-8 -70 -60 -50 -40 -30 -20 -10 0 10 20 INPUT POWER (dBm)
VIDEO OUT & Error vs. Input Power, Fin = 500 MHz
2
4
1.8
ERR +25C
3
ERR +85C
ERR -40C
1.6
2
VIDEO OUT (V)
1.4
1
1.2
0
1
-1
0.8
Ideal
Video Out +25C
0.6
Video Out +85C
Video Out -40C
0.4
-70 -60 -50 -40 -30 -20 -10 0
INPUT POWER (dBm)
-2 -3 -4 10 20
ERROR (dB)
VIDEO OUT & Error vs. Input Power, Fin = 1 GHz
2
1.8
ERR +25C ERR +85C
ERR -40C
1.6
VIDEO OUT (V)
1.4
1.2
1
0.8 Ideal
Video Out +25C
0.6
Video Out +85C
Video Out -40C
0.4
-70 -60 -50 -40 -30 -20 -10 0
INPUT POWER (dBm)
4 3 2 1 0 -1 -2 -3 -4 10 20
ERROR (dB)
VIDEO OUT & Error vs. Input Power, Fin = 2 GHz
2
4
1.8
ERR +25C ERR +85C
3
ERR -40C
1.6
2
VIDEO OUT (V)
1.4
1
1.2
0
1
-1
0.8
-2
Ideal
0.6
Video Out +25C Video Out +85C
-3
Video Out -40C
0.4
-4
-70 -60 -50 -40 -30 -20 -10 0 10 20
INPUT POWER (dBm)
ERROR (dB)
VIDEO OUT & Error vs. Input Power, Fin = 6 GHz
2
4
1.8
ERR +25C ERR +85C
3
ERR -40C
1.6
2
VIDEO OUT (V)
1.4
1
1.2
0
1
-1
0.8
-2
Ideal
0.6
Video Out +25C Video Out +85C
-3
Video Out -40C
0.4
-4
-70 -60 -50 -40 -30 -20 -10 0 10 20
INPUT POWER (dBm)
ERROR (dB)
VIDEO OUT & Error vs. Input Power, Fin = 10 GHz
2
4
1.8
ERR +25C ERR +85C
3
ERR -40C
1.6
2
VIDEO OUT (V)
1.4
1
1.2
0
1
-1
0.8
Ideal
0.6
Video Out +25C Video Out +85C
Video Out -40C
0.4
-70 -60 -50 -40 -30 -20 -10 0
INPUT POWER (dBm)
-2 -3 -4 10 20
[1] An average ideal line is used to calculate error curves. [2] At 25°C.
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