IC OPAMP GP R-R CMOS QUAD 14PDIP

 

ALD4706PBL

Manufacturer Part NumberALD4706PBL
DescriptionIC OPAMP GP R-R CMOS QUAD 14PDIP
ManufacturerAdvanced Linear Devices Inc
ALD4706PBL datasheets

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Specifications of ALD4706PBL

Amplifier TypeGeneral PurposeNumber Of Circuits4
Output TypeRail-to-RailSlew Rate0.17 V/µs
Gain Bandwidth Product200kHzCurrent - Input Bias0.1pA
Voltage - Input Offset10000µVCurrent - Supply120µA
Current - Output / Channel200µAVoltage - Supply, Single/dual (±)2 V ~ 12 V, ±1 V ~ 6 V
Operating Temperature0°C ~ 70°CMounting TypeThrough Hole
Package / Case14-DIP (0.300", 7.62mm)Number Of Channels4
Voltage Gain Db109.54 dBCommon Mode Rejection Ratio (min)60 dB
Input Offset Voltage10 mVOperating Supply Voltage3 V, 5, V, 9 V
Supply Current0.2 mAMaximum Power Dissipation1 mW
Maximum Operating Temperature+ 70 CMounting StyleThrough Hole
Maximum Dual Supply Voltage+/- 6 VMinimum Operating Temperature0 C
Lead Free Status / RoHS StatusLead free / RoHS Compliant-3db Bandwidth-
Other names1014-1182  
show all specifications
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Design & Operating Notes:
1. The ALD4706A/ALD4706B/ALD4706 CMOS operational amplifier
uses a 3 gain stage architecture and an improved frequency
compensation scheme to achieve large voltage gain, high output
driving capability, and better frequency stability. In a conventional
CMOS operational amplifier design, compensation is achieved with
a pole splitting capacitor together with a nulling resistor. This method
is, however, very bias dependent and thus cannot accommodate the
large range of supply voltage operation as is required from a stand
alone CMOS operational amplifier. The ALD4706A/ALD4706B/
ALD4706 is internally compensated for unity gain stability using a
novel scheme that does not use a nulling resistor. This scheme
produces a clean single pole roll off in the gain characteristics while
providing for more than 70 degrees of phase margin at the unity gain
frequency.
2. The ALD4706A/ALD4706B/ALD4706 has complementary p-channel
and n-channel input differential stages connected in parallel to
accomplish rail to rail input common mode voltage range. This means
that with the ranges of common mode input voltage close to the power
supplies, one of the two differential stages is switched off internally.
To maintain compatibility with other operational amplifiers, this
switching point has been selected to be about 1.5V below the positive
supply voltage. Since offset voltage trimming on the ALD4706A/
ALD4706B/ALD4706 is made when the input voltage is symmetrical
to the supply voltages, this internal switching does not affect a large
variety of applications such as an inverting amplifier or non-inverting
amplifier with a gain larger than 2.5 (5V operation), where the common
mode voltage does not make excursions above this switching point.
The user should however, be aware that this switching does take
place if the operational amplifier is connected as a unity gain buffer
and should make provision in his design to allow for input offset voltage
variations.
3.
The input bias and offset currents are essentially input protection
diode reverse bias leakage currents, and are typically less than 0.1pA
TYPICAL PERFORMANCE CHARACTERISTICS
SUPPLY CURRENT AS A FUNCTION
OF SUPPLY VOLTAGE
INPUTS GROUNDED
OUTPUT UNLOADED
320
T
= -55°C
A
240
160
80
0
0
±1
±2
±3
SUPPLY VOLTAGE (V)
OPEN LOOP VOLTAGE GAIN AS A
FUNCTION OF LOAD RESISTANCE
1000
100
10
1
10K
100K
LOAD RESISTANCE (Ω)
ALD4706A/ALD4706B
ALD4706
4. The output stage consists of class AB complementary output drivers,
5. The ALD4706A/ALD4706B/ALD4706 operational amplifier has been
6. The ALD4706A/ALD4706B/ALD4706, with its ultra micropower
+25°C
-25°C
+125°C
+70°C
±4
±5
±6
V
= ±2.5V
S
T
= 25°C
A
1M
10M
Advanced Linear Devices
at room temperature. This low input bias current assures that the
analog signal from the source will not be distorted by input bias
currents. Normally, this extremely high input impedance of greater
13
than 10
Ω would not be a problem as the source impedance would
limit the node impedance. However, for applications where source
impedance is very high, it may be necessary to limit noise and hum
pickup through proper shielding.
capable of driving a low resistance load. The output voltage swing is
limited by the drain to source on-resistance of the output transistors
as determined by the bias circuitry, and the value of the load resistor.
When connected in the voltage follower configuration, the oscillation
resistant feature, combined with the rail to rail input and output feature,
makes an effective analog signal buffer for medium to high source
impedance sensors, transducers, and other circuit networks.
designed to provide full static discharge protection. Internally, the
design has been carefully implemented to minimize latch up.
However, care must be exercised when handling the device to avoid
strong static fields that may degrade a diode junction, causing
increased input leakage currents. In using the operational amplifier,
the user is advised to power up the circuit before, or simultaneously
with, any input voltages applied and to limit input voltages to not
exceed 0.3V of the power supply voltage levels.
operation, offers numerous benefits in reduced power supply
requirements, less noise coupling and current spikes, less thermally
induced drift, better overall reliability due to lower self heating, and
lower input bias current. It requires practically no warm up time as
the chip junction heats up to only 0.1°C above ambient temperature
under most operating conditions.
COMMON MODE INPUT VOLTAGE RANGE
AS A FUNCTION OF SUPPLY VOLTAGE
±7
±6
T
= 25°C
A
±5
±4
±3
±2
±1
0
0
±1
±2
±3
±4
SUPPLY VOLTAGE (V)
INPUT BIAS CURRENT AS A FUNCTION
OF AMBIENT TEMPERATURE
10000
V
= ±2.5V
1000
S
100
10
1.0
0.1
-50
-25
0
25
50
AMBIENT TEMPERATURE (°C)
±5
±6
±7
75
100
125
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