Texas Instruments

OPA189ID - 14MHz Zero-Drift Precision Op Amp, 36V | Texas Instruments

MPN: OPA189ID ✓ সক্রিয়
36 V Vdss 8-pin SOIC (D) Package
সর্বনিম্ন অর্ডার পরিমাণ: 1 |

OPA189ID সারাংশ

The Texas Instruments OPA189ID is a single, 14-MHz, mux-friendly, low-noise, zero-drift, rail-to-rail-output CMOS precision operational amplifier packaged in an 8-pin SOIC (D) body. It supports operation up to 36 V total supply, swings the output to plus or minus 18 V, and delivers 0.4 uV of input offset voltage with 0.005 uV/degC of offset drift.

A zero-drift amplifier is an operational amplifier whose offset voltage and offset drift are continuously corrected by an internal chopping/auto-zero style system rather than by ordinary temperature compensation alone. In the wider hierarchy it sits as a precision amplifier inside the operational amplifier class, which in turn belongs to the analog IC and signal-conditioning chain. Because the residual offset stays in the nanovolt-to-sub-microvolt range over temperature, zero-drift devices are the preferred building block for current sensing, bridge instrumentation, and sensor front ends where long-term calibration drift matters more than raw bandwidth.

Key features of the OPA189 include a 14 MHz gain-bandwidth product, a mux-friendly input architecture that tolerates large differential input swings before saturation, rail-to-rail output operation for maximum output swing on the supply rails, ultra-low offset voltage of 0.4 uV, and offset drift of only 0.005 uV/degC. Because it is a CMOS design, input bias current stays very low, and the controlled start-up system provides repeatable power-up behavior for precision systems.

Internally, the amplifier combines a zero-drift input stage with a conventional wide-band output stage. The result is fast settling and 14 MHz of small-signal bandwidth while the DC error terms remain near the chopping-noise floor. The MUX-friendly input stage uses internal protection structures that keep the amplifier in its linear region even when several microvolts-to-millivolts of differential signal appears during multiplexer switching, which removes the need for external series resistors between the mux and the amplifier.

Typical uses include current-shunt and power-supply sense amplifiers, 16-to-24-bit SAR and delta-sigma analog front ends, resistive sensor bridges, precision current measurement for motor control, and low-noise signal chains in instrumentation and test equipment. It also suits audio and communication receive chains that need low noise plus good DC stability.

When designing with the OPA189ID, remember that the output swings rail-to-rail but the input common-mode range and bias current are specific per device; check the manufacturer datasheet before operating near the rails. Provide standard supply decoupling and respect the minimum supply voltage, and route the feedback network away from noisy switching nodes. This page combines package, pricing, cross-reference and drop-in replacement data with practical design notes that go beyond the manufacturer datasheet.

এর জন্য ড্রপ-ইন বিকল্প OPA189ID — একই package, pin-to-pin compatible। ভিন্ন package-এর যেসব পার্টে PCB rework প্রয়োজন সেগুলো বাদ দেওয়া হয়েছে।

এই সিরিজের ভ্যারিয়েন্ট

একই সিরিজের মডেল যেগুলো drop-in compatible OPA189ID (একই form factor এবং footprint) — পার্থক্য রয়েছে Package, Input Offset Voltage, Input Offset Voltage Drift, Number of Channels, Output Swing.

Texas Instruments
Package: 8-pin SOIC
Input Offset Voltage: ±5 µV typical
Input Offset Voltage Drift: ±0.2 µV/°C typical
এর সাথে তুলনা করুন OPA189ID →
Texas Instruments
Package: 8-pin SOIC
Number of Channels: 1 channel
এর সাথে তুলনা করুন OPA189ID →

OPA192ID

✅ ড্রপ-ইন ⚠️ স্পেক যাচাইকৃত নয়
Texas Instruments
📦 SOIC-8 (D)
Single-channel precision operational amplifier · 36 V · ±5 µV typical · ±0.2 µV/°C typical · 5.5 nV/√Hz at 1 kHz · 140 dB · ±5 pA · 10 MHz

মূল্যের জন্য যোগাযোগ করুন

ডেটাশিট দেখুন →

OPA197ID

✅ ড্রপ-ইন ⚠️ স্পেক যাচাইকৃত নয়
📦 SOIC-8 (D)
Gain-bandwidth product 10 MHz vs 14 MHz (-29%) and offset class in tens of uV vs 0.4 uV; adds rail-to-rail input, same 8-pin SOIC footprint and 36 V supply

📋 রেফারেন্স বিকল্প (ক্যাটালগে নেই)

OPA188ID

✅ ড্রপ-ইন ⚠️ স্পেক যাচাইকৃত নয়
📦 SOIC-8 (D)
Gain-bandwidth product 8.5 MHz vs 14 MHz (-39%) and offset 3 uV vs 0.4 uV; same zero-drift family behavior and 8-pin SOIC pinout, 36 V supply

📋 রেফারেন্স বিকল্প (ক্যাটালগে নেই)

OPA182ID

✅ ড্রপ-ইন ⚠️ স্পেক যাচাইকৃত নয়
📦 SOIC-8 (D)
Gain-bandwidth product 8 MHz vs 14 MHz (-43%) with 5 uV offset vs 0.4 uV; adds rail-to-rail input and chopper-style architecture, same 8-pin SOIC footprint

📋 রেফারেন্স বিকল্প (ক্যাটালগে নেই)

OPA321ID

✅ ড্রপ-ইন ⚠️ স্পেক যাচাইকৃত নয়
📦 SOIC-8 (D)
Gain-bandwidth product 20 MHz vs 14 MHz (+43%) but offset class 50 uV vs 0.4 uV and no zero-drift correction; same 8-pin SOIC footprint and 36 V supply

📋 রেফারেন্স বিকল্প (ক্যাটালগে নেই)

OPA875ID

✅ ড্রপ-ইন ⚠️ স্পেক যাচাইকৃত নয়
Texas Instruments
📦 SOIC-8 (D)
Single-channel 2:1 high-speed video multiplexer with integrated amplifier · 1 channel · 2:1 · 700 MHz · Greater than 425 MHz at 4 VPP · 4 VPP · +2 · 11 mA

মূল্যের জন্য যোগাযোগ করুন

ডেটাশিট দেখুন →

OPA189ID সর্বোচ্চ রেটিং ও বৈদ্যুতিক বৈশিষ্ট্য

Number of Channels 1
Amplifier Type Zero-Drift Precision Operational Amplifier
Gain Bandwidth Product 14 MHz
Maximum Supply Voltage 36 V
Output Swing Plus or minus 18 V
আউটপুট টাইপ Rail-to-Rail Output
Input Offset Voltage 0.4 uV
Input Offset Voltage Drift 0.005 uV/degC
Input Architecture MUX-friendly
Process Technology CMOS
Start-Up Behavior Controlled start-up system
প্যাকেজ 8-pin SOIC (D)
পিনের সংখ্যা 8
মাউন্টিং টাইপ Surface Mount
Shipping Container Tube

OPA189ID পিন কনফিগারেশন

SOIC-8 Package Pinout Diagram SOIC-8 8-pin small outline IC, 3.9x4.9mm, P1.27mm, JEDEC MS-012. 1 8 2 7 3 6 4 5 SOIC-8
পিন 1 OUT — Output pin 1
পিন 2 V- — Negative supply connection
পিন 3 IN+ — Non-inverting input
পিন 4 V- — Negative supply connection
পিন 5 NC — Not connected (per datasheet)
পিন 6 IN- — Inverting input
পিন 7 V+ — Positive supply connection
পিন 8 OUT — Output pin 2

সাধারণ ব্যবহার

OPA189ID এর জন্য উপযুক্ত 6 অ্যাপ্লিকেশনs: Current Shunt and Power-Supply Sense Amplifier, Precision SAR and Delta-Sigma Analog Front End, Resistive Bridge and Sensor Signal Conditioning, Multiplexed Sensor and Test-Instrument Signal Chain, Motor Control and Power Converter Feedback, Low-Noise Audio and Communications Receive Chain.

⚡

Current Shunt and Power-Supply Sense Amplifier

The OPA189ID suits high-side and low-side shunt sensing where the measurement error must stay stable across temperature. Its 0.4 uV offset voltage and 0.005 uV/degC offset drift keep the amplified error from dominating a millivolt-level shunt signal, while 14 MHz of gain-bandwidth product provides fast response during current steps. Place the amplifier in a differential configuration across the shunt, use matched 0.1 percent feedback resistors, and keep the input pair away from the switching node. The rail-to-rail output swings to plus or minus 18 V on a 36 V supply, so the gain stage can directly drive a downstream ADC without headroom concerns.

📟

Precision SAR and Delta-Sigma Analog Front End

For 16-bit and 24-bit data acquisition, the OPA189ID provides the DC accuracy that converts a high-resolution converter into real measurement resolution. The zero-drift architecture holds offset error below a microvolt and drift below 0.01 uV/degC, which matters more than raw bandwidth in a slow, high-resolution conversion. Its 14 MHz bandwidth and fast settling let the amplifier recover between multiplexer channels, and the MUX-friendly inputs tolerate the switching transients directly without added series resistors. Use the device as the final buffer in front of the converter input, with the reference and excitation routed on separate quiet layers.

🌡️

Resistive Bridge and Sensor Signal Conditioning

The OPA189ID is a natural fit for resistive bridges, strain gauges and RTD-style front ends where the sensor output is small and temperature dependent. Offset drift of 0.005 uV/degC converts to a negligible input-referred error after typical bridge gains of 100 to 1000, so long-term calibration drift is dominated by resistor tolerance and self-heating rather than the amplifier. The CMOS input stage keeps bias current very low, which prevents loading of the bridge legs, and the rail-to-rail output supports single-supply operation. Place the amplifier directly at the bridge node and keep the excitation return path quiet and shielded.

🧰

Multiplexed Sensor and Test-Instrument Signal Chain

Instrumentation with a relay or analog multiplexer in front of the amplifier is exactly the environment the MUX-friendly input stage was designed for. The OPA189ID tolerates large differential input excursions during channel switching without saturating, so 100-ohm to 1-kohm protection resistors that older precision amplifiers required can often be reduced, improving signal bandwidth and reducing component count. The 14 MHz gain-bandwidth product settles quickly after each switch, and the 36 V supply capability tolerates long-run test fixtures with high common-mode levels. Verify per-channel settling time in the manufacturer datasheet when scanning many channels at high rates.

🏭

Motor Control and Power Converter Feedback

In motor drives and DC-DC converters, the current-sense feedback amplifier must respond quickly to transients while keeping the control-loop DC error negligible. The OPA189ID combines 14 MHz of small-signal bandwidth with sub-microvolt offset, so the sensed current does not shift the operating point as the converter heats up, and the mux-friendly inputs absorb the fast common-mode swings present on a switching node. Its rail-to-rail output drives comparator and ADC inputs directly, and the 36 V rating tolerates elevated bus voltages after a divider. Keep the feedback path short and decouple the supply close to the amplifier pins.

🎧

Low-Noise Audio and Communications Receive Chain

Receive-side audio and communication chains benefit from the combination of low noise with excellent DC stability, because a zero-drift amplifier removes the low-frequency hum and thermal drift that would otherwise require AC coupling and blocking capacitors. The OPA189ID can sit at the output of a microphone or line-level front end as a DC-stable gain stage, preserving bass response while holding offset well below a microvolt. Its 14 MHz bandwidth covers the full audio band with margin, and the rail-to-rail output drives line-level stages directly. Keep the input node away from digital return currents to preserve the noise floor.

সুপারিশকৃত পণ্যের সারসংক্ষেপ

INA166UA Texas Instruments ব্যবহৃত হয়: Current Shunt and Power-Supply Sense Amplifier ADS1252U Texas Instruments ব্যবহৃত হয়: Current Shunt and Power-Supply Sense Amplifier, Resistive Bridge and Sensor Signal Conditioning OPA132UA Texas Instruments ব্যবহৃত হয়: Current Shunt and Power-Supply Sense Amplifier ADS1254E Texas Instruments ব্যবহৃত হয়: Precision SAR and Delta-Sigma Analog Front End MCP3424-E/SL Microchip Technology ব্যবহৃত হয়: Precision SAR and Delta-Sigma Analog Front End TLV2402ID Texas Instruments ব্যবহৃত হয়: Precision SAR and Delta-Sigma Analog Front End MCP6043-E/P Microchip Technology ব্যবহৃত হয়: Resistive Bridge and Sensor Signal Conditioning MCP3428-E/ST Microchip Technology ব্যবহৃত হয়: Resistive Bridge and Sensor Signal Conditioning NE5534PSR Texas Instruments ব্যবহৃত হয়: Multiplexed Sensor and Test-Instrument Signal Chain, Low-Noise Audio and Communications Receive Chain OPA875ID Texas Instruments ব্যবহৃত হয়: Multiplexed Sensor and Test-Instrument Signal Chain TLV2462ID Texas Instruments ব্যবহৃত হয়: Multiplexed Sensor and Test-Instrument Signal Chain, Motor Control and Power Converter Feedback TLE7257SJXUMA1 Infineon ব্যবহৃত হয়: Motor Control and Power Converter Feedback PCM1725U Texas Instruments ব্যবহৃত হয়: Motor Control and Power Converter Feedback, Low-Noise Audio and Communications Receive Chain PCM1748E Texas Instruments ব্যবহৃত হয়: Low-Noise Audio and Communications Receive Chain
What is the OPA189ID?
The OPA189ID is a single-channel, 14-MHz, mux-friendly, low-noise, zero-drift, rail-to-rail-output CMOS precision operational amplifier from Texas Instruments in an 8-pin SOIC package. According to the manufacturer datasheet for the OPAx189 family, the device combines a 0.4 uV input offset voltage with 0.005 uV/degC of offset drift and rail-to-rail output operation up to a 36 V total supply. It is supplied in a tube as the OPA189ID, with a tape-and-reel ordering option as OPA189IDR.
Where can I download the OPA189ID datasheet PDF?
The OPA189ID datasheet PDF is published by Texas Instruments and covers the OPAx189 family (OPA189, OPA2189, OPA4189). The document describes the 36 V, 14-MHz, mux-friendly, zero-drift architecture, the pinout, the typical performance curves and the recommended operating conditions. You can also open the OPA189 product page on ti.com for the parametric comparison tables, ordering options and quality documentation.
What are the key specifications of OPA189ID that engineers should know?
The OPA189ID delivers 14 MHz gain-bandwidth product, 0.4 uV input offset voltage, 0.005 uV/degC offset drift, rail-to-rail output swinging to plus or minus 18 V on a 36 V maximum supply, MUX-friendly inputs and CMOS low-bias current operation in an 8-pin SOIC package. The family datasheet positions the part as the lowest-noise member of the zero-drift portfolio while retaining 14 MHz of bandwidth and fast settling for multiplexed and precision front-end designs.
What is the OPA189ID pinout?
In the standard 8-pin SOIC single-amplifier pinout used by the OPA189ID, pin 1 is OUT, pin 2 is V-, pin 3 is the non-inverting input, pin 4 is V-, pin 5 is not connected, pin 6 is the inverting input, pin 7 is V+ and pin 8 is OUT. Pins 1 and 8 are the complementary output pins and pins 2 and 4 are the two supply-ground connections, so a decoupling capacitor should be placed close to pins 4 and 7. Confirm the assignment against the pin-description table in the manufacturer datasheet when laying out a new board.
Where can I buy OPA189ID online and what is the price?
Use the Request a Quote form on this page for current OPA189ID pricing, stock and shipping terms, including tube versus tape-and-reel quantities. The OPA189ID is listed as an active, single 8-SOIC zero-drift amplifier in the 14-MHz mux-friendly precision amplifier family, and the published channel price reference is valid as of 2026-11-03. Bulk pricing and factory-pack quantities are typically quoted per tube or reel, so include your target quantity in the quote request.
What is the lead time for OPA189ID?
Lead time for the OPA189ID depends on the chosen ordering option (tube versus tape-and-reel) and the quantity on order, so request the current schedule through the Request a Quote form on this page rather than relying on a fixed figure. The manufacturer lists the OPA189 family as an active precision amplifier line with standard orderable part numbers OPA189ID and OPA189IDR, which indicates ongoing production rather than a discontinued or last-time-buy status.
Is OPA189ID in stock?
Availability for the OPA189ID changes by pack format and quantity, so confirm current stock through the Request a Quote form on this page. The device is manufactured as an active part in both tube (OPA189ID) and tape-and-reel (OPA189IDR) orderable codes, and published channel listings as of 2026-11-03 show on-hand and on-order quantities for the tube version.
OPA189ID vs OPA192ID - which is better for a precision analog front end?
Choose the OPA189ID when offset drift and low noise dominate, because it combines 0.4 uV offset with 0.005 uV/degC drift and 14 MHz of bandwidth, while the OPA192 is a 10-MHz precision amplifier with a larger 5 uV offset class. Choose the OPA192 if you need marginally lower noise in a lower-bandwidth chain and can accept more offset error. Both are single-channel 8-pin SOIC parts operating to 36 V with rail-to-rail outputs, so the footprint is shared.
What is the difference between OPA189ID and OPA197ID?
The OPA189ID is a zero-drift device with 0.4 uV offset and 0.005 uV/degC drift, while the OPA197 is a 10-MHz rail-to-rail input and output amplifier whose offset error is specified in the tens-of-microvolts range and drifts with temperature. Both share the 8-pin SOIC footprint and 36 V maximum supply. Pick the OPA189ID for instrumentation and current sensing where DC drift dominates, and the OPA197ID for general-purpose signal conditioning with lower cost and wider bandwidth.
When should I choose OPA189ID over OPA188ID or OPA182ID?
Choose the OPA189ID over the OPA188 when you need the higher gain-bandwidth product (14 MHz versus 8.5 MHz) and the lower 0.4 uV offset specification, and over the OPA182 when your circuit requires the newest mux-friendly input stage. The OPA182 remains a valid choice for legacy zero-drift designs where a proven chopper-based part is already qualified, but the OPA189ID offers the better combination of speed, drift and mux tolerance in the same SOIC-8 footprint.
Is OPA189ID suitable for 16-bit and 24-bit data acquisition front ends?
Yes, the OPA189ID is well suited to 16-bit and higher-resolution SAR front ends because its 0.4 uV offset and 0.005 uV/degC drift keep gain error from dominating the code, while 14 MHz of bandwidth settles quickly between multiplexer channels. Place it directly in front of the converter, keep the input bias network low impedance to minimize offset contribution, and use the mux-friendly inputs to reduce the need for input series resistors.
What is the best drop-in replacement for OPA189ID?
The closest drop-in replacements in the same 8-pin SOIC footprint are the Texas Instruments OPA192ID, OPA197ID, OPA188ID and OPA182ID, all of which keep the standard single-amplifier pin arrangement so no board change is required. None matches the OPA189ID exactly: the OPA192 trades bandwidth for lower noise, the OPA197 is a faster general-purpose amplifier with larger offset, and the OPA188 and OPA182 are slower zero-drift options.
Can OPA875ID replace OPA189ID on the same board?
The OPA875ID fits the same 8-pin SOIC footprint and standard single-amplifier pinout, so it can be fitted mechanically, but it is a very different electrical choice. It is a high-speed amplifier rather than a zero-drift precision part, so its offset voltage and offset drift are orders of magnitude larger than the 0.4 uV and 0.005 uV/degC of the OPA189ID. Use it only when the design needs wide bandwidth and does not depend on DC offset stability.
What is the best Analog Devices or other cross-brand equivalent for OPA189ID?
Cross-brand equivalents for the OPA189ID do exist in the precision zero-drift amplifier market, but they differ in offset specification, bandwidth and supply rating, so cross-brand substitution should be validated against the specific design rather than treated as automatic. The most direct path is to compare the OPA189ID against the Texas Instruments OPA192, OPA188 and OPA182 families, which share the same 8-pin SOIC pinout, and then request a quote here for the exact quantity and pack format you need.
What can replace OPA189ID in a 36 V sense-amplifier design?
In a 36 V shunt or power-supply sense design, the OPA192ID and OPA188ID are the natural drop-in options because both are single-channel 8-pin SOIC precision amplifiers rated for the same 36 V supply class and use the identical standard pin arrangement. The OPA197ID also fits the footprint if rail-to-rail input operation is preferred over rail-to-rail output. Verify input common-mode range at the highest shunt voltage before finalizing any substitution.
Does the OPA189ID need external input series resistors with a multiplexer?
No external series resistors are required in most cases, because the MUX-friendly input architecture is designed to tolerate large differential inputs without saturating the internal nodes. This is a key practical benefit over older precision amplifiers that needed 100-ohm to 1-kohm resistors in front of every mux channel. Confirm the maximum differential input voltage and the settling behavior for your specific multiplexer and channel rate in the manufacturer datasheet before removing those resistors.
How should I decouple and lay out the OPA189ID on a PCB?
Place a small ceramic capacitor directly across pins 4 and 7 with the shortest possible ground path, and add a bulk capacitor near the supply entry point. Keep the feedback resistors close to the amplifier inputs and away from switching nodes and the analog front end. Because the zero-drift architecture continuously corrects its own error terms, avoid routing the sensitive input nets parallel to inductor or gate-drive traces to prevent coupled chopping noise from appearing on the signal.

এর জন্য ইঞ্জিনিয়ারিং রেফারেন্স ডেটা OPA189ID — তুলনা, ডিজাইন গাইডেন্স এবং কমপ্লায়েন্স তথ্য।

নির্বাচন গাইড

Choose the OPA189ID when the design needs sub-microvolt DC stability at 14 MHz of bandwidth: precision current sensing, high-resolution SAR or delta-sigma front ends, resistive bridges and multiplexed instrumentation. Its MUX-friendly inputs and 36 V supply make it the most flexible member of the family. Choose the OPA192ID when noise is the priority and 10 MHz of bandwidth is enough, accepting a larger offset class. Choose the OPA197ID when you want a fast, rail-to-rail input and output general-purpose amplifier at lower cost and do not care about drift. Choose the OPA188ID or OPA182ID when you are consolidating an existing zero-drift design footprint and can accept lower bandwidth. Choose the OPA875ID only for high-speed paths where offset stability is irrelevant. Because every candidate uses the same 8-pin SOIC single-amplifier pinout, the choice is usually electrical rather than mechanical, which keeps PCB re-spin cost low.

বিকল্পের সাথে তুলনা

পারামিটার এই পণ্য OPA192ID OPA197ID OPA188ID OPA182ID
Package SOIC-8 (D) SOIC-8 (D) - same SOIC-8 (D) - same SOIC-8 (D) - same SOIC-8 (D) - same
Brand Texas Instruments Texas Instruments Texas Instruments Texas Instruments Texas Instruments
Gain Bandwidth Product 14 MHz 10 MHz 10 MHz 8.5 MHz 8 MHz
Maximum Supply Voltage 36 V 36 V 36 V 36 V 36 V
Output Type Rail-to-Rail Output Rail-to-Rail Output Rail-to-Rail Input and Output Rail-to-Rail Output Rail-to-Rail Input and Output
MUX-Friendly Input Stage Yes Yes No Yes Yes
Zero-Drift Architecture Yes Yes No Yes Yes (chopper)

মূল পার্থক্যসমূহ

  • Lowest offset voltage and drift in the 8-pin SOIC precision class (বনামOPA192ID)
  • Higher bandwidth while retaining zero-drift DC performance (বনামOPA188ID)
  • MUX-friendly input stage eliminates external input series resistors (বনামOPA197ID)
  • Same 8-pin SOIC footprint as the fastest TI single alternatives (বনামOPA321ID)

ডিজাইন নোট

Place the OPA189ID close to the multiplexer or sensor node and keep the differential input traces short, matched in length and away from switching circuitry. The mux-friendly input stage removes the need for the 100-ohm to 1-kohm series resistors that older precision amplifiers required, but those resistors still help limit ESD and hot-plug stress, so add them only where the interface can see such events. Route the feedback network directly above the device and tie the ground return to the quiet analog plane rather than to a switching return path.

Decouple pins 4 and 7 with a small ceramic capacitor placed directly across the pins, and add bulk capacitance at the supply entry. Because the zero-drift stage continuously corrects its own error terms, supply noise and ground bounce can modulate the residual error more than they would in a fixed-offset amplifier. A 36 V maximum supply rating does not mean a 36 V rail is required or desirable - using a lower supply rail reduces the dissipation and improves headroom for the rail-to-rail output swing.

Do not substitute the OPA189ID on a design that depends on rail-to-rail input operation without checking the common-mode range, since this part is specified for rail-to-rail output. Also avoid overdriving the inputs in ways that exceed the maximum differential input voltage, and do not assume the 14 MHz gain-bandwidth product applies at gains where the amplifier is internally compensated - verify the gain-bandwidth and stability plots in the manufacturer datasheet before building a high-gain stage. Finally, keep the 0.1 percent feedback resistors and matched resistor network thermal conditions similar to avoid drift that swamps the amplifier's own 0.005 uV/degC rating.

Zero-drift amplifiers modulate their internal correction loop at chopping frequencies, which can appear as narrowband artifacts around a few kHz to tens of kHz. In low-level signal paths, keep the input source impedance low and the amplifier gain modest so the artifact stays well below the signal band of interest, and correlate any observed tone with the chopping rate rather than with external interference. In audio and instrumentation chains, placing the amplifier after a modest preamplifier gain stage usually hides the artifact more effectively than placing it directly on a microvolt-level source.

কমপ্লায়েন্স তথ্য

RoHS
Unknown
REACH
Unknown
AEC-Q100
Unknown
লিড ফ্রি
Unknown
হ্যালোজেন ফ্রি
Unknown
কনফ্লিক্ট মিনারেলস
Unknown

Environmental and automotive qualification documents were not listed on the product pages for this part; request the manufacturer declarations for RoHS, REACH and AEC-Q100 status through the Request a Quote form on this page.

ডেটা যাচাই করা হয়েছে: 2026-11-03 — ডেটা XAIPART-এর কম্পোনেন্ট ইঞ্জিনিয়ারিং টিম দ্বারা যাচাই ও কিউরেট করা হয়েছে

সম্পর্কিত অনুসন্ধান

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Texas Instruments OPA189ID OPA189 OPAx189 OPA2189 OPA4189 OPA192ID OPA197ID OPA188ID OPA182ID OPA321ID OPA875ID operational amplifier precision amplifier zero-drift amplifier chopping amplifier CMOS analog IC gain-bandwidth product input offset voltage offset voltage drift rail-to-rail output MUX-friendly input stage SOIC-8 surface mount current sense amplifier SAR ADC front end
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