Silicon Bipolar MMIC 2.5 GHz
Variable Gain Amplifier
Technical Data
IVA-14208
IVA-14228
Features
• Differential Input and
Output Capability
• DC to 2.5 GHz Bandwidth;
3.4 Gbits/s Data Rates
• High Gain: 24 dB Typical
• Wide Gain Control Range:
34␣ dB Typical
• 6 V Bias
• 5 V VGC Control Range,
IGC␣ <3␣ mA
• Fast Gain Response: <10␣ nsec
Typical
• IVA-14208: Low Cost Plastic
Surface Mount Package
• IVA-14228: Hermetic Ceramic
Surface Mount Package
30
V < 3 V
GC
20
3.75 V
10
4.0 V
0
GAIN (dB)
-10
-20
5.0 V
-30
0.11.03.0
Figure 1. IVA-14228 Typical Variable
Gain vs. Frequency and VGC at
VCC=6V, T
FREQUENCY (GHz)
=25°C.
case
Description
The IVA-14 series MMlCs are
variable gain amplifiers. The
IVA-14208 is housed in a miniature
low cost plastic surface mount
package. The IVA-14228 is housed
in a miniature hermetic ceramic
surface mount package. Both
devices can be used in any
combination of single-ended or
differential inputs or outputs (see
Functional Block Diagram). The
lowest frequency of operation is
limited only by the values of user
selected blocking and bypass
capacitors.
Typical applications include
variable gain amplification or
limiting for fiber optic systems
(e.g. SONET) with data rates up to
3.4 Gbits/s, mobile radio and
satellite receivers, millimeter
wave receiver IF amplifiers and
communications receivers.
The IVA series of variable gain
amplifiers is fabricated using
Hewlett-Packard’s 10 GHz fT,
25␣ GHz f
bipolar process. This process uses
nitride self-alignment, submicrometer lithography, trench
isolation, ion implantation, gold
metallization and polyimide intermetal dielectric and scratch
protection to achieve excellent
performance, uniformity and
reliability.
ISOSAT™-1 silicon
MAX
6-185
IVA-14208
Plastic SO-8 Package
PIN 1
IVA-14228
Ceramic ‘28’ Package
PIN 1
Functional Block
Diagram and Pin
Configuration
PIN 1PIN 8
PIN DESCRIPTION
1. INPUT +
2. V , AC GROUND
EE
3. V , AC GROUND
EE
4. INPUT –
IVA-14228 PACKAGE BOTTOM IS V AC GROUND.
8. V
GC
7. OUTPUT +
6. OUTPUT –
5. V
CC
EE
5965-9975E
Page 2
IVA-14208, -14228 Absolute Maximum Ratings
[1]
SymbolParameterUnitsIVA-14208IVA-14228
VCC-V
P
in
VGC-V
T
i
T
stg
P
t
EE
EE
Device Voltage, T
Input Power, T
Control Voltage, T
= 25°CVolts1212
case
= 25° Cd B m1313
case
= 25° CVolts1010
case
Junction Temperature+°C150200
Storage Temperature°C-65 to +150- 65 to +200
Total Device DissipationmW1000
[2]
1000
[3]
Thermal Resistance:
IVA-14208 Thermal Resistance Junction to Case
IVA-14228 Thermal Resistance Junction to Case
Notes:
1. Operation in excess of any one of these conditions may result in permanent damage to the device.
2. T
= 25°C. Derate at 14.7 mW/° C for T
case
3. T
= 25°C. Derate at 15.9 mW/° C for T
case
4. T
= 150°C.
j
> 82°C.
case
> 137°C.
case
[4]
: θjc = 68° C/W
[4]
: θjc = 63° C/W
IVA-14208, -14228 Guaranteed Electrical Specifications All measurements reflect single-ended
(unbalanced) performance. T
= 25° C. V
case
= 6 V, VEE = 0 V, VGC = 0 V, Z
CC
= 50 Ω
L
IVA-14208IVA-14228
Symbol ParameterUnitsMin.Typ. Max. Min.Typ. Max.
GPPower Gain (|S21|2), f = 1 GHzdB20242224
∆GPGain Flatness, f = 0.05 to 2 GHzdB±1.2± 0.7
f
3dB
GCRGain Control Range
3 dB BandwidthGHz2.02.52.22.5
[2]
, f = 1 GHz,dB30343034
VGC = 0 to 5 V
ISOReverse Isolation (|S12|2), f = 1 GHz,dB3740
VGC = 0 to 5 V
VSWRInput VSWR, f = 0.05 to 2.0 GHz,2:12:1
VGC = 0 to 5 V
Output VSWR, f = 0.05 to 2.0 GHz,2:12.5:1
VGC = 0 to 5 V
NF50 Ω Noise Figure, f = 1 GHzdB9.09.0
P
ldB
Output Power at 1 dB Gain,dBm-2.0-2.0
Compression f = 1 GHz
V
OUT
Pk-Pk Single-ended Output Voltage,mVpp450450
f = 1 GHz
IP
3
t
D
I
cc
Notes:
1. The recommended operating voltage range for these devices is 5 to 8 V. Typical performance as a function of voltage is shown in the
graphs on the following pages.
2. The recommended gain control range for these devices for dynamic control is 0 to 4.2 V. Operation at gain control settings above 4.2 V
may result in gain control increase rather than gain decrease. See figures 4 and 19.
Third Order Intercept Point, f = 1 GHzdBm88
Group Delay, f = 1 GHzpsec450450
Supply CurrentmA283848283848
6-186
Page 3
IVA-14228 Typical Performance Curves
INPUT +
INPUT -
ALL C = 1000 pF
Figure 2. IVA-142X8 Connection Diagram Showing Balanced Inputs and
Unbalanced Outputs. Inputs and Outputs May Be Either Balanced or Unbalanced.
V
GC
50
OUTPUT +
V
CC
30
V < 3 V
GC
20
3.75 V
10
4.0 V
0
GAIN (dB)
-10
-20
5.0 V
-30
0.11.03.0
FREQUENCY (GHz)
Figure 3. IVA-14228 Gain vs.
Frequency and VGC; VCC = 6 V, T
25°C.
case
=
30
20
10
0
-10
1dB
-20
P (dBm), GAIN (dB)
-30
-40
035
Figure 4. IVA-14228 P
VGC; V
CC
4:1
3:1
VSWR
2:1
GAIN
P
1dB
124
V (VOLTS)
GC
and Gain vs.
case
1dB
= 25° C.
= 6 V, T
OUTPUT
INPUT
Figure 5. IVA-14228 Noise Figure vs.
Frequency and VGC; V
25°C.
25
20
V = 3.75 V
GC
15
NOISE FIGURE (dB)
10
V = 0 V
GC
5
0.11.03.0
3:1
2:1
VSWR
OUTPUT
INPUT
FREQUENCY (GHz)
= 6 V, T
CC
case
=
4
3
2
GC
I (mA)
1
0
035
124
V (VOLTS)
GC
Figure 6. IVA-14228 IGC vs. VGC; V
6 V, T
= 25° C.
case
500
400
300
TIME DELAY (pS)
200
CC
=
1:1
0.11.03.0
FREQUENCY (GHz)
Figure 7. IVA-14228 VSWR vs.
Frequency; VCC = 6 V, VGC = 0 V, T
25°C.
case
1:1
0.11.03.0
FREQUENCY (GHz)
Figure 8. IVA-14228 VSWR vs.
=
Frequency; VCC = 6 V, VGC = 5 V, T
25°C.
6-187
case
100
0.11.03.0
Figure 9. IVA-14228 Group Delay vs.
=
Frequency; VGC = 0 V, VCC = 6 V, T
FREQUENCY (GHz)
25°C.
case
=
Page 4
IVA-14228 Typical Performance Curves (cont.)
28
26
-55°C
25°C
24
125°C
22
GAIN (dB)
20
18
16
0.11.03.0
FREQUENCY (GHz)
Figure 10. IVA-14228 Gain vs. Frequency and Temperature; VCC = 6 V,
VGC = 0 V.
20
15
10
NOISE FIGURE (dB)
125°C
25°C
-55°C
5
0.11.03.0
FREQUENCY (GHz)
Figure 13. IVA-14228 Noise Figure vs.
Frequency and Temperature; VCC = 6 V,
VGC = 0 V.
2
125°C
0
25°C
-2
-55°C
1dB
P (dBm)
-4
-6
-8
0.11.03.0
Figure 11: IVA-14228 P
quency and Temperature; VCC = 6 V,
FREQUENCY (GHz)
vs. Fre-
1dB
VGC = 0 V.
45
40
35
d
I (mA)
30
25
-5585125
-2525
055
TEMPERATURE (°C)
Figure 14. IVA-14228 ICC vs.
Temperature; VCC = 6 V, VGC = 0 V,
Frequency = 1 GHz.
26
< GAIN
25
24
GAIN (dB)
23
P >
1dB
22
21
-5585125
-2525
0
TEMPERATURE (°C)
Figure 12. IVA-14228 Gain and P
Temperature; VCC = 6 V, VGC = 0 V,
55
1dB
Frequency = 1 GHz.
60
50
125°C
40
CC
I (mA)
30
20
56.57
25°C
-55°C
5.56
V (VOLTS)
CC
Figure 15. IVA-14228 ICC vs. VCC and
Temperature; VGC = 0 V.
vs.
0
-1
-2
-3
-4
-5
1dB
P (dBm)
28
27
26
25
24
GAIN (dB)
23
22
21
20
56.57
125°C
25°C
-55°C
5.56
V (VOLTS)
CC
Figure 16. IVA-14228 Gain vs. VCC and
Temperature; VGC = 0 V,
Frequency␣ =␣ 1␣ GHz.
2
0
-2
-4
-1dB
P (dBm)
-6
-8
-10
56.57
Figure 17. IVA-14228 P
Temperature; VGC = 0 V,
125°C
25°C
-55°C
5.56
V (VOLTS)
CC
1dB
Frequency␣ =␣ 1␣ GHz.
6-188
vs. VCC and
Page 5
IVA-14208 Typical Performance Curves
DELAY (pSEC)
30
V = 0 V
GC
25
20
3.75 V
15
GAIN (dB)
10
5
4.0 V
0
0.11.03.0
FREQUENCY (GHz)
Figure 18. IVA-14208 Gain vs.
Frequency and VGC; VCC = 6 V,
T
␣=␣25 °C.
case
4
3
2
GC
I (mA)
1
40
GAIN
20
P
0
1dB
P (dBm), GAIN (dB)
-20
-40
045
Figure 19. IVA-14208 Gain and P
VGC; VCC = 6 V, Frequency = 1 GHz,
T
= 25° C.
case
4:1
3:1
VSWR
2:1
1dB
13
2
V (VOLTS)
GC
OUTPUT
INPUT
1dB
vs.
15
10
NOISE (dB)
5
0.11.03.0
Figure 20. IVA-14208 Noise Figure vs.
Frequency; VCC = 6 V, VGC = 0 V,
T
␣=␣25 °C.
case
600
550
500
450
400
350
FREQUENCY (GHz)
0
13
045
2
V (VOLTS)
GC
Figure 21. IVA-14208 IGC vs. VGC;
VCC␣=␣6 V, T
0
-1
-2
-3
-1dB
P (dBm)
-4
-5
-6
0.11.03.0
Figure 24. IVA-14208 P
Frequency and VGC; VCC = 6 V,
Frequency = 1 GHz, T
case
V = 0 V
GC
3.75 V
= 25° C.
FREQUENCY (GHz)
vs.
1dB
= 25° C.
case
1:1
0.11.03.0
Figure 22. IVA-14208 VSWR vs.
Frequency; VCC = 6 V, VGC = 0 V,
T
␣=␣25 °C.
case
26
25
24
GAIN (dB)
23
22
-25050
-4085
Figure 25. IVA-14208 Gain and P
Temperature; VCC = 6 V, VGC = 0 V,
Frequency = 1 GHz.
FREQUENCY (GHz)
< GAIN
P >
1dB
TEMPERATURE (°C)
300
0.11.03.0
FREQUENCY (GHz)
Figure 23. IVA-14208 Group Delay vs.
Frequency; VCC = 6 V, VGC = 0 V,
T
␣=␣25 °C.
case
0
-1
-2
-3
1dB
-4
vs.
25
45
42.5
40
37.5
d
I (mA)
1dB
P (dBm)
35
32.5
30
-4085
-2525
050
TEMPERATURE (°C)
Figure 26. IVA-14208 ICC vs.
Temperature; VCC = 6 V, VGC = 0 V.
6-189
Page 6
IVA-14208 Typical Performance Curves (cont.)
50
27
2
45
40
CC
I (mA)
35
30
25
5.07.0
5.56.5
6.0
V (VOLTS)
CC
Figure 27. IVA-14208 ICC vs. VCC;
VGC␣=␣0 V, T
VECTOR NETWORK ANALYZER
PORT 1PORT 2
= 25° C.
case
HP-8573C
25
GAIN (dB)
23
21
5.07.0
5.56.5
6.0
V (VOLTS)
CC
Figure 28. IVA-14208 Gain vs. VCC;
VGC␣ = 0 V, Frequency = 1 GHz,
T
␣=␣25 °C.
case
HP-6038
VOLTAGE SOURCE
HP-6038
VOLTAGE SOURCE
0
-2
1dB
P (dBm)
-4
-6
5.07.0
5.56.5
Figure 29. IVA-14208 P
VGC␣ = 0 V, Frequency = 1 GHz,
T
␣=␣25 °C.
case
6.0
V (VOLTS)
CC
1dB
vs. VCC ;
PIN
IVA-142X8
DUT
V
GC
P
OUT
V
CC
BIAS TEE
50
Figure 30. Test Equipment Setup for Measuring Performance of the IVA-142X8.
6-190
Page 7
IVA-14208, -14228 Part Number Ordering Information
Part NumberContainer TypeQty. per Container
IVA-14208-STRBIP Strip1
IVA-14208-TR17" Reel1000
IVA-14228-STRBIP Strip1
SO-8 Package Dimensions for IVA-14208
1.27 (.050)
6x
3.80/4.00
(.1497/.1574)
Pin 1
1.35/1.75
(.0532/.0688)
0.33/0.51
(.013/.020) 8X
Note:
1. Dimensions are shown in millimeters (inches).
V142
4.72/5.00
(.186/.197)
0.10/0.25
(.004/.0098)
5.84/6.20
(.230/.244)
0.10 (.004)
0°/8°
28 Package Dimensions for IVA-14228
10.414 (0.410)
9.906 (0.390)
4.699 (0.182)
4.445 (0.172)
18
27
36
45
V142
1.27
(0.050)
TYP
2.337 (0.092)
1.829 (0.072)
(.015 ± .004) x 45°
0.41/1.27
(.016/.050)
0.38 ± 0.10
0.19/0.25
(.0075/.0098)
V AC GROUND
ee
0.457 (0.018)
0.305 (0.012)
6.731 (0.265)
6.223 (0.245)
0.178 (0.007)
2.794 (0.110)
2.286 (0.090)
NOTES:
1. DIMENSIONS ARE IN MILLIMETERS (INCHES).
2. CONTROLLING DIMENSIONS ARE IN INCHES.
0.076 (0.003)
6-191
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