FAIRCHILD KH600

www.fairchildsemi.com
KH600
1GHz, Differential Input/Output Amplifier
Features
■
■
■
■
■
■
■
■
General Description
The KH600 is the first amplifier to combine differential
input and output with a bandwidth of DC-1GHz at
2Vpp. The inputs and outputs are 100Ω differential
(50Ω single ended). The KH600 operates from ±5V
supplies and offers a fixed gain of 14dB (5V/V).
DC - 1GHz bandwidth
Fixed 14dB (5V/V) gain
100Ω (differential) inputs and outputs
-74/-64dBc 2nd/3rd HD at 50MHz
45mA output current
9Vpp into 100Ω differential load
13,000V/µs slew rate
Optional supply current and offset voltage adjustment
The KH600 also offers optional supply current, differential output offset voltage, and common mode offset voltage adjustments.
The KH600 is constructed using Fairchild's in-house
thin film resistor/bipolar transistor technology. The
KH600 is available in a 12-pin TO8 package.
Applications
■
■
■
■
■
ATE systems
High-end instrumentation
High bandwidth output amplifier
Differential buffer
Line driver
Typical Application
Single Tone Intercept Point
100
90
50Ω
50Ω
Distortion (dBm)
+
Differential
100Ω
Source
The KH600 includes 50Ω resistors from each
input to ground (resulting in a differential input
impedance of 100Ω).
80
I2
70
60
50
40
I3
30
20
0
50
100
150
200
250
300
350
Frequency (MHz)
5Vpp Pulse Response
2nd and 3rd Harmonic Distortion
3
-30
Vo = 2Vpp
2
Output voltage (V)
Distortion (dBc)
-40
-50
-60
3rd
-70
2nd
-80
1
0
-1
-2
-90
-3
-100
0
50
100
150
200
250
300
Time (2ns/div)
Frequency (MHz)
REV. 1A February 2001
DATA SHEET
KH600
KH600 Electrical
Characteristics
Parameters
(G = +5V/V (14dB), RL = 100Ω (differential), Ta = +25°C,
+Vb1 = +Vb2 = +Vs = +5V, -Vb = -Vs = -5V; unless noted)
Conditions
Case Temperature
Frequency Domain Response
-3dB bandwidth
peaking
Vo = 2Vpp
DC to 250MHz
DC to 500MHz
full power bandwidth
Vo = 8Vpp
linear phase deviation
DC to 500MHz
gain
1MHz
DC
input return loss (single-ended 50Ω)
DC = 250MHz
DC = 500MHz
output return loss (single-ended 50Ω) DC = 500MHz
Time Domain Response
rise and fall time
overload recovery
slew rate
Distortion and Noise Response
2nd harmonic distortion
3rd harmonic distortion
input referred noise
noise figure
DC Performance
output offset voltage
average drift
power supply rejection ratio (±Vs)
supply current
Output Characteristics
output voltage swing
output current
Recommended Operating Conditions
total supply voltage
-Vb
+Vb1, +Vb2
input voltage (relative to gain)
TYP
Min & Max
+25°C
+25°C
1000
0.2
0.5
350
3
14
14.3
22
14
27
2V step
8V step
Vin = 4Vpp
8V step
MHz
dB
dB
MHz
deg
dB
dB
dB
dB
dB
±0.1
350
1
900
13,000
5Vpp, 50MHz
2Vpp, 50MHz
1Vpp, 200MHz
5Vpp, 50MHz
2Vpp, 50MHz
1Vpp, 200MHz
>1MHz
61
74
65
46
64
70
1.35
6.5
I/O’s terminated into 50Ω to GND
-18
200
55
67
22
DC
±Vs pins
±Vb pins (+Vb1 shorted to +Vb2)
UNITS
NOTES
1
ps
ns
ps
V/µs
dBc
dBc
dBc
dBc
dBc
dBc
nV/√Hz
dB
61
57
±60
mV
µV/°C
dB
mA
mA
70
24
differential
9
±45
Vpp
mA
(+Vs to -Vs)
4 to 12
0 to -12
0 to 12
±2
V
V
V
V
1
1
1
1
1
Min/max ratings are based on product characterization and simulation. Individual parameters are tested as noted. Outgoing quality levels
are determined from tested parameters.
NOTES:
1) 100% tested at 25°C.
Absolute Maximum Ratings
total supply voltage
maximum junction temperature
storage temperature range
lead temperature (10 sec)
KH600 Package
15V
+150°C
-65°C to +150°C
+300°C
12-pin TO8
TOP VIEW
GND
+Vb1
+Vs
12
11
10
+In
-Vb
+OUT
1
9
2
8
3
7
-In
-Vs
-OUT
4
5
6
GND
+Vb2
+Vs
NOTE: Case is grounded.
2
REV. 1A February 2001
KH600
DATA SHEET
KH600 Performance
Characteristics
(G = +5V/V (14dB), RL = 100Ω (differential), Ta = +25°C,
+Vb1 = +Vb2 = +Vs = +5V, -Vb = -Vs = -5V; unless noted)
Small Signal AC Response (S21)
Input and Output Return Loss (S11/S22)
0
Magnitude (dB)
Magnitude (1dB/div)
-6
-12
-18
-24
-30
S11 Ch1
-36
-42
-48
-54
S22 Ch2
-60
-66
1
10
100
1000
1
10
Frequency (MHz)
Reverse Isolation (S12)
Linear Phase Deviation (deg)
5
Magnitude (dB)
-16
-22
-28
-34
-40
-46
-52
-58
4
3
2
1
0
-1
1
10
100
1000
1
100
200
Frequency (MHz)
300
400
500
Frequency (MHz)
Input Noise
Differential Gain vs. Supply Voltage
1.5
6
±Vb = ±Vs
Differential Gain (V/V)
Input Refered Noise (nV√Hz)
1000
Linear Phase Deviation
-10
1.4
1.3
1.2
1.1
1.0
5
4
3
2
1
0
1
10
100
1000
1
2
Frequency (MHz)
5
6
7
20
Vo = 1Vpp
Vo = 1Vpp
0
-20
-20
IMD (dBc)
0
-40
-60
-40
-60
-80
-80
49.65
49.85
50.05
Frequency (MHz)
REV. 1A February 2001
4
2 Tone 3rd Order Intermod. Distortion
2 Tone 3rd Order Intermod. Distortion
-100
49.45
3
Supply Voltage (±V)
20
IMD (dBc)
100
Frequency (MHz)
50.25
50.45
-100
99.45
99.65
99.85
100.05
100.25
100.45
Frequency (MHz)
3
DATA SHEET
KH600
KH600 Performance
Characteristics
(G = +5V/V (14dB), RL = 100Ω (differential), Ta = +25°C,
+Vb1 = +Vb2 = +Vs = +5V, -Vb = -Vs = -5V; unless noted)
2 Tone 3rd Order Intermod. Distortion
2 Tone 3rd Order Intermod. Distortion
20
20
Vo = 5Vpp
0
-20
-20
IMD (dBc)
IMD (dBc)
Vo = 5Vpp
0
-40
-60
-80
-40
-60
-80
-100
49.45
49.65
49.85
50.05
50.25
50.45
-100
99.45
99.65
Frequency (MHz)
99.85
100.05
2nd Harmonic Distortion vs. Vo
-30
-40
-40
Vo = 5Vpp
-50
Distortion (dBc)
Distortion (dBc)
Vo = 5Vpp
Vo = 2Vpp
-60
-70
Vo = 0.5Vpp
-80
-50
Vo = 2Vpp
-60
Vo = 1Vpp
-70
-80
Vo = 0.5Vpp
Vo = 1Vpp
-90
-90
-100
-100
0
50
100
150
200
250
300
0
50
Frequency (MHz)
90
23
Power Output (dBm)
Distortion (dBm)
24
I2
70
60
50
40
I3
30
150
200
250
300
-1dB Compression
100
80
100
Frequency (MHz)
Single Tone Intercept Point
22
21
20
19
18
17
16
20
0
50
100
150
200
250
300
0
350
100
70
23
Supply Current (mA)
24
68
+Vs
-Vs
64
300
400
500
Vb Supply Currents vs. Temperature
Vs Supply Currents vs. Temperature
72
66
200
Frequency (MHz)
Frequency (MHz)
Supply Current (mA)
100.45
3rd Harmonic Distortion vs. Vo
-30
62
60
22
-Vb
21
+Vb1 shorted to +Vb2
20
19
18
58
-40
-20
0
20
40
Temperature (°C)
4
100.25
Frequency (MHz)
60
80
-40
-20
0
20
40
60
80
Temperature (°C)
REV. 1A February 2001
KH600
DATA SHEET
KH600 Performance
Characteristics
(G = +5V/V (14dB), RL = 100Ω (differential), Ta = +25°C,
+Vb1 = +Vb2 = +Vs = +5V, -Vb = -Vs = -5V; unless noted)
Output Offset vs. Temperature
Differential Output Offset vs. Temperature
0
4
3
2
-20
Output (mV)
Output (mV)
-10
OUT1
OUT2
-30
1
0
-1
-2
-40
Inputs/outputs terminated
into 50Ω to GND
--3
-50
-4
-40
-20
0
20
40
60
80
-40
Temperature (°C)
-20
0
20
40
60
80
Temperature (°C)
Clipping Response
Low Frequency Gain vs. Temperature
8
14.2
6
4
Output (V)
Gain (dB)
14.1
14
2
0
-2
-4
13.9
-6
-8
13.8
0
20
40
60
80
Time (2ns/div)
Temperature (°C)
REV. 1A February 2001
5
DATA SHEET
KH600
+Vs
Pin Description
+Vb2
Positive bias voltage for OUT2
-Vb
Negative bias voltage for OUT1 and OUT2
1
IN1
Input 1, +IN
3
IN2
Input 2, -IN
9
OUT1
Output 1, +OUT
7
OUT2
Output 2, -OUT
4, 12
GND
Input termination ground and case
1
2
-Vs
9
U1
KH600
-Vb
-Vs
3
8
7
C6
0.01µF
4
2
-Vs
10
5
11
Positive bias voltage for OUT1
+Vs
+Vb1
+Vs
+Vs
GND
-Vs
-Vs
C8
0.01µF
+Vs
11
6
Negative supply voltage
12
Positive supply voltage
-Vs
GND
+Vs
8
+OUT
+Vb1
6, 10
C1
0.01µF
+IN
+Vb2
Function
GND
Name
5
Pin #’s
C9
6.8µF
C4
0.01µF
C10
6.8µF
-OUT
-IN
+Vs
Figure 1: Basic Circuit Configuration
General Description
Standard Operation:
+Vb1 = +Vb2 = +Vs = +5V;
-Vb = -Vs = -5V
C16
6.8µF
The KH600 is a 1GHz differential input/output amplifier
constructed using Fairchild’s in-house thin film resistor/
bipolar transistor technology. A differential signal on
the inputs of the KH600 will generate a differential
signal at the outputs. If a single ended input signal is
applied to IN1 and a fixed voltage to IN2, the KH600
will produce both a differential and common-mode
output signal. To achieve the maximum dynamic
range, center the inputs halfway between +Vs and -Vs.
C15
0.01µF
The KH600 includes 50Ω resistors from each input to
ground, resulting in a differential input impedance
of 100Ω. Each KH600 output has a 50Ω resistance,
synthesized by feedback, providing a 100Ω differential
output impedance.
+Vb1
+
+Vs
C1
0.01µF
+OUT
11
10
+Vs
GND
+Vb1
12
+IN
2
U1
KH600
-Vb
-Vs
+Vs
C13
0.01µF
-IN
C8
0.01µF
6
GND
+Vb2
5
C5
0.01µF
4
+
8
7
3
C6
6.8µF
-Vs
9
1
-Vb
-OUT
C4
0.01µF
C14
6.8µF
+Vs
+
+Vb2
The KH600 has 3 bias voltage pins that can be used to:
■
Adjust the supply current
■
Trim the differential output offset voltage
■
Adjust the common mode output offset voltage
over a ±3V range
If these adjustments are not required, short +Vb1 and
+Vb2 to +Vs and -Vb to -Vs as shown in Figure 1.
Throughout this data sheet, this configuration (+Vb1 =
+Vb2 = +Vs = +5V and -Vb = -Vs = -5V) is referred to as
the Standard Operating Condition. All of the plots in
the Typical Performance section and the specifications
in the Electrical Characteristics table utilize the basic
circuit configuration shown in Figure 1, unless otherwise
indicated.
Figure 2 illustrates the optional circuit configuration,
utilizing the bias voltage pins. Further discussions
regarding these optional adjustments are provided
later in this document.
6
+Vs
C9
6.8µF
+Vs
GND
GND
-Vs
-Vs
C10
6.8µF
Figure 2: Optional Circuit Configuration (including
optional supply current and offset adjust)
Gain
Differential Gain for the KH600 is defined as (OUT1–
OUT2)/(IN1–IN2). Applying identical (same phase) signals to both inputs and measuring one output will
provide the Common Mode Gain. Figure 3 shows the
differential and common mode gains of the KH600.
Figure 4 illustrates the response of the KH600 outputs
when one input is driven and the other is terminated
into 50Ω.
REV. 1A February 2001
KH600
DATA SHEET
15
Gain (dB)
Differential Gain
10
5
0
Common Mode Gain
-5
-10
40
-40
35
-35
-30
30
-Vb
25
-25
20
-20
15
-15
+Vb1 , +Vb2
10
-10
5
-5
0
1M
10M
100M
1G
0
0
-2
-4
Frequency (Hz)
12
-8
Figure 6: Vb Supply Currents vs -Vb
Power Dissipation
The KH600 runs at “constant” power, which may be
calculated by (Total Is)(Vs – (-Vs)). Under standard
operating conditions, the power is 890mW. The power
dissipated in the package is completely constant,
independent of signal level. In other words, the
KH600 runs class A.
OUT1
8
OUT2
4
2
0
1M
10M
100M
1G
Frequency (Hz)
Figure 4: Gain with Single-Ended Input
Applied to IN1
Supply Current
The KH600 draws supply current from the 2 Vs pins as
well as the 3 Vb pins. Under Standard Conditions, the
total supply current is typically 89mA. Changing the
voltages on the bias voltage pins will change their
respective supply currents as shown in Figures 5 and 6.
Power Supply Rejection Ratio (PSRR)
The KH600 has 5 supply pins, +Vs, -Vs, +Vb1, +Vb2,
and -Vb. All of these sources must be considered
when measuring the PSRR. Figure 7 shows the
response of +Vs and -Vs, looking at OUT2. +Vs and -Vs
have the same effect on OUT1.
-20
±Vb = ±5V
-40
-60
dB
10
Gain (dB)
-6
-Vb (V)
Figure 3: Differential and Common Mode Gain
6
-Vb Supply Currents (mA)
+Vb Supply Currents (mA)
20
+Vs
-80
-Vs
-100
-25
-120
-Vb
20
-20
15
-15
+Vb2
10
-10
+Vb1
5
-5
0
0
-5
-Vb Supply Currents (mA)
+Vb Supply Currents (mA)
25
5
0
2
4
6
8
+Vb1 (V)
Figure 5: Vb Supply Currents vs +Vb1
Changing the voltage on the +Vb1 pin will alter the
supply current for +Vb1 only, +Vb2 and -Vb stay constant
at typically 11mA and 22mA respectively. See Figure 5.
The same principle applies for +Vb2. And Figure 6
illustrates the effect of changing -Vb.
REV. 1A February 2001
-140
100k
1M
10M
100M
1G
Frequency (Hz)
Figure 7: ±Vs PSRR
Figure 8 shows the response of OUT1 and OUT2 when
+Vb1 changes. The PSRR of the Vb pins is “bad”, which
means that they have a large effect on the response
of the KH600 when their voltages are changed. This
is the desired effect of the bias voltage pins. As Figure 8
indicates, changing +Vb1 has a greater effect on OUT1
than it does on OUT2. Changing +Vb1 has a direct
effect on OUT1. Changing +Vb2 has a direct effect on
OUT2. See the Trimming Differential Output Offset
Voltage section for more details.
7
DATA SHEET
KH600
160
0
Total supply Current (mA)
-20
±Vs = ±5V
-40
OUT1
dB
-60
-80
OUT2
-100
-120
±Vs = ±5V
140
120
100
80
60
40
20
0
-140
100k
1M
10M
100M
0
1G
2
4
6
8
Vb (V)
Frequency (Hz)
Figure 8: +Vb PSRR
Figure 9: Total Supply Current vs. Vb
Single-to-Differential Operation
The KH600 is specifically designed for differential-todifferential operation. However, the KH600 can be
used in a single-to-differential configuration with some
performance degradation. The unused input should
be terminated into 50Ω. When driven single-ended,
there will be a slight imbalance in the differential output voltages, see Figure 4. This imbalance is approximately 2.88dB. To compensate for this imbalance, attenuate the higher gain output. (If the signal is applied to
IN1, attenuate OUT1.)
Supply current is relatively independent of the voltages on +Vs and -Vs as shown in Figure 10.
Total supply Current (mA)
100
Unused Inputs and/or Outputs
For optimal performance, terminate any unused
inputs and/or outputs with 50Ω.
80
70
60
50
40
30
20
±Vb = ±5V
10
0
0
8
4
6
8
Figure 10: Total Supply Current vs. Vs
1100
1000
900
800
700
600
500
40
To adjust the supply current, apply voltages of equal
magnitude, but opposite polarity, to the bias voltage
pins. For example, setting +Vb1, +Vb2 to +5VDC and
-Vb to -5VDC (as shown in Figure 2) results in the
standard supply current condition. Setting +Vb1, +Vb2
to +5.5V and -Vb to -5.5V results in an approximate
10% increase in supply current. Figure 9 shows the
how the total supply current of the KH600 is effected by
changes in the bias voltages (Vb = +Vb1 = +Vb2 = |-Vb|).
2
Supply Voltage (±V)
-3dB Bandwidth (MHz)
Adjusting Supply Current
The KH600 operates class A, so maximum output
current is directly proportional to supply current.
Adjusting the voltages on +Vb1 and +Vb2 in
opposition to -Vb controls supply current. The default
supply current of the KH600 has been optimized for
best bandwidth and distortion performance. The
main reason for adjusting supply current is to either
reduce power or increase maximum output current.
Adjusting the supply current will not significantly
improve bandwidth or distortion and may actually
degrade them.
90
60
80
100
120
140
Total Supply Current (mA)
Figure 11: -3dB Bandwidth vs. Is
REV. 1A February 2001
KH600
DATA SHEET
-40
800
2Vpp @ 50MHz
600
3rd
400
-60
Output (mV)
Distortion (dB)
-50
-70
-80
OUT2
200
0
OUT1
-200
2nd
-90
-400
-100
-600
40
60
80
100
120
140
0
2
Total Supply Current (mA)
4
6
8
+Vb2 (V)
Figure 12: Harmonic Distortion vs. Total Is
Figure 15: Output vs. +Vb2
-10
800
5Vpp @ 50MHz
-20
600
3rd
-40
400
Output (mV)
Distortion (dB)
-30
-50
-60
-70
2nd
200
OUT1, OUT2
0
-80
-200
-90
-400
-100
40
60
80
100
120
140
-600
-8
Total Supply Current (mA)
-4
-2
0
-Vb (V)
Figure 13: Harmonic Distortion vs. Total Is
Figure 16: Output vs. -Vb
Adjusting Common Mode Output Offset Voltage
Short +Vb1 to +Vb2 and vary +Vb and -Vb to adjust
common mode output offset voltage. The recommended
values for achieving a given output offset are shown
in Figure 17. These values were chosen to give the best
distortion performance. The exact values are not crucial.
6
4
800
+Vb1, +Vb2
2
+Vs = +7.5V
-Vs = -3.5V
0
Volts (V)
Trimming Differential Output Offset Voltage
Vary +Vb1 and +Vb2 to adjust differential offset voltage. +Vb1 controls OUT1 and +Vb2 controls OUT2.
The output voltage moves in a direction opposite to
the direction of the bias voltage. Figure 14 shows the
resulting voltage change at OUT1 and OUT2 when the
voltage on +Vb1 is changed. Figure 15 shows the
resulting voltage change at OUT1 and OUT2 when the
voltage on +Vb2 is changed. OUT1 and OUT2 change
at the same rate when -Vb is changed, as shown in
Figure 16. Therefore, changing the voltage on -Vb has
no effect on differential output offset voltage.
Output (mV)
-6
-2
-4
600
-6
400
-8
-Vb
-10
OUT1
200
-12
0
0
OUT2
1
2
3
4
Common Mode Voltage (V)
-200
Figure 17: Vb vs. Common Mode Voltage
-400
-600
0
2
4
6
8
+Vb1 (V)
Figure 14: Output vs. +Vb1
REV. 1A February 2001
9
DATA SHEET
KH600
For common mode voltages of 0 to -3.5V swap the Vb’s
and change the polarity. See the example below.
Desired Common
Mode Voltage
+Vb1 and +Vb2 (V)
-Vb (V)
2 Volts
2
-8
-2 Volts
8
-2
Harmonic Distortion (dBc)
-40
+Vs = +7.5V
-Vs = -3.5V
2Vpp, 50MHz
-45
HD2
Layout Considerations
General layout and supply bypassing play major roles
in high frequency performance. Fairchild has evaluation
boards to use as a guide for high frequency layout
and as aid in device testing and characterization.
Follow the steps below as a basis for high frequency
layout:
-50
HD3
-55
-60
HD3
-65
-70
HD2
-75
-80
0
1
2
3
Pay close attention to your peak-to-peak output voltage requirement. As you change the common mode
voltage, you may need to increase or shift ±Vs in order
to achieve your output requirements. A 2V margin is
recommended. For example, if your output requirement is 5Vpp and you will be changing the common
mode from 1V to 3V set Vs = +7.5 and -Vs to -3.5V. This
example calls for a supply voltage of greater than 10V.
This will not effect supply current because as Figure 10
indicates, changing ±Vs has no effect on supply current.
4
■
Include all recommended 6.8µF and 0.01µF
bypass capacitors
■
Place the 6.8µF capacitors within 0.75 inches of
the power pin
■
Place the 0.01µF capacitors within 0.1 inches of
the power pin
■
Remove the ground plane under and around the
part, especially near the input and output pins to
reduce parasitic capacitance
■
Minimize all trace lengths to reduce series inductances
■
A 10pF to 50pF bypass capacitor can be used
between pins 5 and 6 and between pins 10 and 11
to reduce crosstalk from the positive supply
Common Mode Output Voltage (V)
Figure 18: 2Vpp HD vs. Common Mode Voltage
Harmonic Distortion (dBc)
-30
+Vs = +7.5V
-Vs = -3.5V
5Vpp, 50MHz
-35
-40
HD3
HD2
-45
-50
-55
-60
-65
-70
-75
-80
0
1
2
3
4
Common Mode Output Voltage (V)
Figure 19: 5Vpp HD vs. Common Mode Voltage
g
140
Refer to the evaluation board layouts shown in Figure
21 for more information.
Evaluation Board Information
The following evaluation boards are available to aid
in the testing and layout of this device:
Supply Current (mA)
+Vs = +7.5V
-Vs = -3.5V
Evaluation
Board
120
100
Is, -Is
80
Description
Products
KEB007
Basic KH600 Eval Bd
KH600
KEB009
KH600 Eval Bd with offset and
Icc Adjust Option
KH600
60
40
0
1
2
3
4
Common Mode Output Voltage (V)
Figure 20: Resulting Is and -Is
Do not include capacitors C2, C3, C7, C11, and C12
that are shown on the KEB007 evaluation board.
Evaluation board schematics and layouts are shown in
Figure 21. Refer to the schematic shown in Figure 1
for the KEB007 board and Figure 2 for the KEB009
board.
Figures 18 and 19 illustrate how the common mode
voltage effects harmonic distortion. Figure 20 show
the resulting Is and -Is supply currents.
10
REV. 1A February 2001
KH600
DATA SHEET
KH600 Evaluation Board Layout
Figure 21a: KEB007 (top side)
Figure 21b: KEB007 (bottom side)
Figure 21c: KEB009 (top side)
Figure 21d: KEB009 (bottom side)
REV. 1A February 2001
11
DATA SHEET
KH600
KH600 Package Dimensions
L
A
e1
e2
7
φD
e
D1
8
9
6
10
5
11
4
12
k
φb
3
2
1
α
F
k1
TO-8
SYMBOL
INCHES
Minimun
Maximum
MILIMETERS
Minimum
Maximum
A
0.142
0.181
3.61
4.60
φb
0.016
0.019
0.41
0.48
φD
0.595
0.605
15.11
15.37
φD1
0.543
0.555
13.79
14.10
e
0.400 BSC
10.16 BSC
e1
0.200 BSC
5.08 BSC
e2
0.100 BSC
2.54 BSC
F
0.016
0.030
0.41
0.76
k
0.026
0.036
0.66
0.91
k1
0.026
0.036
0.66
0.91
L
0.310
0.340
7.87
8.64
α
45° BSC
NOTES:
Seal: cap weld
Lead finish: gold per MIL-M-38510
Package composition:
Package: metal
Lid: Type A per MIL-M-38510
45° BSC
Ordering Information
Part No.
KH600AI
Temperature
-40°C to +85°C
Package
12-pin TO8
Eval. Board
KEB007, KEB009
DISCLAIMER
FAIRCHILD SEMICONDUCTOR RESERVES THE RIGHT TO MAKE CHANGES WITHOUT FURTHER NOTICES TO ANY PRODUCTS HEREIN TO IMPROVE RELIABILITY, FUNCTION OR DESIGN. FAIRCHILD
DOES NOT ASSUME ANY LIABILITY ARISING OUT OF THE APPLICATION OR USE OF ANY PRODUCT OR CIRCUIT DESCRIBED HEREIN; NEITHER DOES IT CONVEY ANY LICENSE UNDER ITS PATENT
RIGHTS, NOR THE RIGHTS OF OTHERS.
LIFE SUPPORT POLICY
FAIRCHILD’S PRODUCTS ARE NOT AUTHORIZED FOR USE AS CRITICAL COMPONENTS IN LIFE SUPPORT DEVICES OR SYSTEMS WITHOUT THE EXPRESS WRITTEN APPROVAL OF THE PRESIDENT
OF FAIRCHILD SEMICONDUCTOR CORPORATION. As used herein:
1.
Life support devices or systems are devices or systems which, (a) are intended for
surgical implant into the body, or (b) support or sustain life, and (c) whose failure to
perform when properly used in accordance with instructions for use provided in the
labeling, can be reasonably expected to result in a significant injury of the user.
www.fairchildsemi.com
2.
A critical component in any component of a life support device or system whose
failure to perform can be reasonably expected to cause the failure of the life
support device or system, or to affect its safety or effectiveness.
© 2001 Fairchild Semiconductor Corporation