Datasheet Texas Instruments LM358

Manufacturer	Texas Instruments
Series	LM358

Datasheets

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Packaging

Parametrics

Parameters / Models	LM358D	LM358DE4	LM358DG4	LM358DGKR	LM358DGKRG4	LM358DR	LM358DRE4	LM358DRG3	LM358DRG4	LM358P	LM358PE3	LM358PE4	LM358PSLE	LM358PSR	LM358PW	LM358PWG4	LM358PWLE	LM358PWR	LM358PWRG3	LM358PWRG4	LM358PWRG4-JF
Additional Features													N/A				N/A
Approx. Price (US$)													0.07 | 1ku				0.07 | 1ku
Architecture	Bipolar	Bipolar	Bipolar	Bipolar	Bipolar	Bipolar	Bipolar	Bipolar	Bipolar	Bipolar	Bipolar	Bipolar	Bipolar	Bipolar	Bipolar	Bipolar	Bipolar	Bipolar	Bipolar	Bipolar	Bipolar
CMRR(Min), dB	65	65	65	65	65	65	65	65	65	65	65	65		65	65	65		65	65	65	65
CMRR(Min)(dB)													65				65
CMRR(Typ), dB	80	80	80	80	80	80	80	80	80	80	80	80		80	80	80		80	80	80	80
CMRR(Typ)(dB)													80				80
Features	Cost Optimized	Cost Optimized	Cost Optimized	Cost Optimized	Cost Optimized	Cost Optimized	Cost Optimized	Cost Optimized	Cost Optimized	Cost Optimized	Cost Optimized	Cost Optimized		Cost Optimized	Cost Optimized	Cost Optimized		Cost Optimized	Cost Optimized	Cost Optimized	Cost Optimized
GBW(Typ), MHz	0.7	0.7	0.7	0.7	0.7	0.7	0.7	0.7	0.7	0.7	0.7	0.7		0.7	0.7	0.7		0.7	0.7	0.7	0.7
GBW(Typ)(MHz)													0.7				0.7
Input Bias Current(Max), pA	150000	150000	150000	150000	150000	150000	150000	150000	150000	150000	150000	150000		150000	150000	150000		150000	150000	150000	150000
Input Bias Current(Max)(pA)													150000				150000
Iq per channel(Max), mA	0.6	0.6	0.6	0.6	0.6	0.6	0.6	0.6	0.6	0.6	0.6	0.6		0.6	0.6	0.6		0.6	0.6	0.6	0.6
Iq per channel(Max)(mA)													0.6				0.6
Iq per channel(Typ), mA	0.35	0.35	0.35	0.35	0.35	0.35	0.35	0.35	0.35	0.35	0.35	0.35		0.35	0.35	0.35		0.35	0.35	0.35	0.35
Iq per channel(Typ)(mA)													0.35				0.35
Number of Channels	2	2	2	2	2	2	2	2	2	2	2	2		2	2	2		2	2	2	2
Number of Channels(#)													2				2
Offset Drift(Typ), uV/C	7	7	7	7	7	7	7	7	7	7	7	7		7	7	7		7	7	7	7
Offset Drift(Typ)(uV/C)													7				7
Operating Temperature Range, C	0 to 70	0 to 70	0 to 70	0 to 70	0 to 70	0 to 70	0 to 70	0 to 70	0 to 70	0 to 70	0 to 70	0 to 70		0 to 70	0 to 70	0 to 70		0 to 70	0 to 70	0 to 70	0 to 70
Operating Temperature Range(C)													0 to 70				0 to 70
Output Current(Typ), mA	30	30	30	30	30	30	30	30	30	30	30	30		30	30	30		30	30	30	30
Output Current(Typ)(mA)													30				30
Package Group	SOIC	SOIC	SOIC	VSSOP	VSSOP	SOIC	SOIC	SOIC	SOIC	PDIP	PDIP	PDIP	SO	SO	TSSOP	TSSOP	TSSOP	TSSOP	TSSOP	TSSOP	TSSOP
Package Size: mm2:W x L, PKG	8SOIC: 29 mm2: 6 x 4.9(SOIC)	8SOIC: 29 mm2: 6 x 4.9(SOIC)	8SOIC: 29 mm2: 6 x 4.9(SOIC)	8VSSOP: 15 mm2: 4.9 x 3(VSSOP)	8VSSOP: 15 mm2: 4.9 x 3(VSSOP)	8SOIC: 29 mm2: 6 x 4.9(SOIC)	8SOIC: 29 mm2: 6 x 4.9(SOIC)	8SOIC: 29 mm2: 6 x 4.9(SOIC)	8SOIC: 29 mm2: 6 x 4.9(SOIC)	See datasheet (PDIP)	See datasheet (PDIP)	See datasheet (PDIP)		8SO: 48 mm2: 7.8 x 6.2(SO)	8TSSOP: 19 mm2: 6.4 x 3(TSSOP)	8TSSOP: 19 mm2: 6.4 x 3(TSSOP)		8TSSOP: 19 mm2: 6.4 x 3(TSSOP)	8TSSOP: 19 mm2: 6.4 x 3(TSSOP)	8TSSOP: 19 mm2: 6.4 x 3(TSSOP)	8TSSOP: 19 mm2: 6.4 x 3(TSSOP)
Package Size: mm2:W x L (PKG)													See datasheet (PDIP)				See datasheet (PDIP)
Rail-to-Rail	In to V-	In to V-	In to V-	In to V-	In to V-	In to V-	In to V-	In to V-	In to V-	In to V-	In to V-	In to V-	In to V-	In to V-	In to V-	In to V-	In to V-	In to V-	In to V-	In to V-	In to V-
Rating	Catalog	Catalog	Catalog	Catalog	Catalog	Catalog	Catalog	Catalog	Catalog	Catalog	Catalog	Catalog	Catalog	Catalog	Catalog	Catalog	Catalog	Catalog	Catalog	Catalog	Catalog
Slew Rate(Typ), V/us	0.3	0.3	0.3	0.3	0.3	0.3	0.3	0.3	0.3	0.3	0.3	0.3		0.3	0.3	0.3		0.3	0.3	0.3	0.3
Slew Rate(Typ)(V/us)													0.3				0.3
Total Supply Voltage(Max), +5V=5, +/-5V=10	32	32	32	32	32	32	32	32	32	32	32	32		32	32	32		32	32	32	32
Total Supply Voltage(Max)(+5V=5, +/-5V=10)													32				32
Total Supply Voltage(Min), +5V=5, +/-5V=10	3	3	3	3	3	3	3	3	3	3	3	3		3	3	3		3	3	3	3
Total Supply Voltage(Min)(+5V=5, +/-5V=10)													3				3
Vn at 1kHz(Typ), nV/rtHz	40	40	40	40	40	40	40	40	40	40	40	40		40	40	40		40	40	40	40
Vn at 1kHz(Typ)(nV/rtHz)													40				40
Vos (Offset Voltage @ 25C)(Max), mV	7	7	7	7	7	7	7	7	7	7	7	7		7	7	7		7	7	7	7
Vos (Offset Voltage @ 25C)(Max)(mV)													7				7

Eco Plan

Application Notes

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  AN-116 Use the LM158/LM258/LM358 Dual Single Supply Op Amp (Rev. B)
  PDF, 313 Kb, Revision: B, File published: Apr 23, 2013
  This application note discusses the use of the LM158/LM258/LM358 dual op amp when operated from asingle supply.
• Download
  AN-30 Log Converters (Rev. B)
  PDF, 370 Kb, Revision: B, File published: May 1, 2013
  One of the most predictable non-linear elements commonly available is the bipolar transistor. Therelationship between collector current and emitter base voltage is precisely logarithmic from currentsbelow one picoamp to currents above one milliamp. Using a matched pair of transistors and integratedcircuit operational amplifiers it is relatively easy to construct a linear to logarithmic conv
• Download
  AN-278 Designing with a New Super Fast Dual Norton Amplifier (Rev. B)
  PDF, 867 Kb, Revision: B, File published: Apr 23, 2013
  This application note provides new design ideas and discusses the positive impact of designing with theDual Norton amplifier.
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  AN-79 IC Preamplifier Challenges Choppers on Drift (Rev. B)
  PDF, 940 Kb, Revision: B, File published: May 1, 2013
  Since the introduction of monolithic IC amplifiers there has been a continual improvement in DC accuracy.Bias currents have been decreased by 5 orders of magnitude over the past 5 years. Low offset voltagedrift is also necessary in a high accuracy circuits. This is evidenced by the popularity of low drift amplifiertypes as well as the requests for selected low-drift op amps. However until n
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  Audio Applications of Linear Integrated Circuits
  PDF, 272 Kb, File published: May 2, 2004
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  AN-262 Applying Dual and Quad FET Op Amps (Rev. B)
  PDF, 1.1 Mb, Revision: B, File published: May 6, 2013
  The availability of dual and quad packaged FET op amps offers the designer all the traditional capabilitiesof FET op amps including low bias current and speed and some additional advantages. The cost-peramplifieris lower because of reduced package costs. This means that more amplifiers are available toimplement a function at a given cost making design easier. At the same time the availab
• Download
  AN-263 Sine Wave Generation Techniques (Rev. C)
  PDF, 747 Kb, Revision: C, File published: Apr 22, 2013
  This application note describes the sine wave generation techniques to control frequency amplitude anddistortion levels.
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  AN-256 Circuitry for Inexpensive Relative Humidity Measurement (Rev. B)
  PDF, 262 Kb, Revision: B, File published: May 6, 2013
  Of all common environmental parameters humidity is perhaps the least understood and most difficult tomeasure. The most common electronic humidity detection methods albeit highly accurate are not obviousand tend to be expensive and complex (See Box). Accurate humidity measurement is vital to a number ofdiverse areas including food processing paper and lumber production pollution monitor
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  Get More Power Out of Dual or Quad Op-Amps
  PDF, 91 Kb, File published: Oct 2, 2002
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  A boost-topology battery charger powered from a solar panel
  PDF, 185 Kb, File published: Sep 16, 2011
• Download
  AN-260 A 20-Bit (1 ppm) Linear Slope-Integrating A/D Converter (Rev. B)
  PDF, 502 Kb, Revision: B, File published: May 5, 2013
  This application report discusses how combining an “inferior”, 20 year old A/D conversion technique with amicroprocessor, a developmental A/D converter achieves 1 part-per-million (20-bit) linearity.
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  True RMS Detector
  PDF, 88 Kb, File published: Oct 1, 2002
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  AN-31 Op Amp Circuit Collection (Rev. B)
  PDF, 2.3 Mb, Revision: B, File published: May 1, 2013
  This application report provides basic circuits of the Texas Instruments op amp collection.
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  AN-20 An Applications Guide for Op Amps (Rev. C)
  PDF, 727 Kb, Revision: C, File published: May 1, 2013
  This application note is a guide for Op Amps. The circuits discussed herein are illustrative of the versatilityof the integrated operational amplifier and provide a guide to a number of useful applications. Thecautions noted in each section will show the more common pitfalls encountered in amplifier usage.
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  AN-24 A Simplified Test Set for Op Amp Characterization
  PDF, 1.2 Mb, File published: May 10, 2004
  Application Note 24 A Simplified Test Set for Op Amp Characterization
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  AN-241 Working with High Impedance Op Amps
  PDF, 169 Kb, File published: May 3, 2004
  Application Note 241 Working with High Impedance Op Amps
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  AN-29 IC Op Amp Beats FETs on Input Current (Rev. B)
  PDF, 965 Kb, Revision: B, File published: May 1, 2013
  This application note describes a monolithic operational amplifier which has input error currents in theorder of 100 pA over a в€’55В°C to 125В°C temperature range. Instead of FETs, the circuit used bipolartransistors with current gains of 5000 so that offset voltage and drift are not degraded. A powerconsumption of 1 mW at low voltage is also featured.A number of novel circuits that make use
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  AN-4 Monolithic Op Amp—The Universal Linear Component (Rev. B)
  PDF, 579 Kb, Revision: B, File published: May 1, 2013
  Operational amplifiers are undoubtedly the easiest and best way of performing a wide range of linearfunctions from simple amplification to complex analog computation. The cost of monolithic amplifiers isnow less than $2.00, in large quantities, which makes it attractive to design them into circuits where theywould not otherwise be considered. Yet low cost is not the only attraction of monoli
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  AN-32 FET Circuit Applications
  PDF, 254 Kb, File published: May 10, 2004
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  AB-24 Bench Testing LM3900 and LM359 Input Parameters
  PDF, 142 Kb, File published: May 10, 2004
  Application Brief 24 Bench Testing LM3900 and LM359 Input Parameters
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  AN-446 A 150W IC Op Amp Simplifies Design of Power Circuits
  PDF, 782 Kb, File published: May 10, 2004
  Application Note 446 A 150W IC Op Amp Simplifies Design of Power Circuits
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  Building an Op Amp With Bipolar Transistors, A Historical Application Note (Rev. A)
  PDF, 1.2 Mb, Revision: A, File published: Sep 19, 2016
  It is well known that the voltage noise of an operational amplifier can be decreased by increasing the emitter currentof the input stage. The signal-to-noise ratio will be improved by the increase of bias, until the base current noise begins to dominate.
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  AN-A The Monolithic Operational Amplifier: A Tutorial Study
  PDF, 379 Kb, File published: May 11, 2004
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  Precise Tri-Wave Generation
  PDF, 80 Kb, File published: Oct 2, 2002
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  AN-46 The Phase Locked Loop IC as a Communication System Building Block
  PDF, 314 Kb, File published: May 14, 2004
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  General Purpose Power Supply
  PDF, 94 Kb, File published: Oct 3, 2002
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  Low Drift Amplifiers
  PDF, 71 Kb, File published: Oct 2, 2002
• Download
  3Q 2011 Issue Analog Applications Journal
  PDF, 1.4 Mb, File published: Sep 16, 2011
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  Журнал по применению аналоговых компонентов 3Q 2011
  PDF, 3.9 Mb, File published: Sep 1, 2011
• Download
  Predicting Op Amp Slew Rate Limited Response
  PDF, 139 Kb, File published: Oct 7, 2002
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  Applying a New Precision Op Amp
  PDF, 421 Kb, File published: Oct 4, 2004
• Download
  Super Matched Bipolar Transistor Pair Sets New Standards for Drift and Noise (Rev. B)
  PDF, 966 Kb, Revision: B, File published: May 5, 2013
  This application report discusses how a super matched bipolar transistor pair sets new standards for driftand noise.
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  AN-480 A 40 MHz Programmable Video Op Amp
  PDF, 218 Kb, File published: May 11, 2004
• Download
  Get Fast Stable Response From Improved Unity-Gain Followers
  PDF, 107 Kb, File published: Oct 2, 2002

Model Line

Manufacturer's Classification

• Semiconductors> Amplifiers> Operational Amplifiers (Op Amps)> General-Purpose Op Amps