Texas Instruments

LM2902KAVQDRQ1 - Quad 30V 1.2MHz Op Amp | Texas Instruments

Артикул: LM2902KAVQDRQ1 ✓ Активен
30 V Vdss 20 nA Id SOIC-14 Package
MOQ: 1 |

LM2902KAVQDRQ1 Обзор

Texas Instruments LM2902KAVQDRQ1 is a four-circuit, general-purpose operational amplifier specified for a 30 V maximum supply, 1.2 MHz gain-bandwidth product, and 2 mV input offset voltage in a 14-pin SOIC package. The automotive-qualified LM2902-Q1 family is designed for systems requiring four amplifiers per package, extended-temperature operation, and reliable operation across a wide supply range.

An operational amplifier is an analog integrated circuit that amplifies the voltage difference between its non-inverting and inverting inputs. The LM2902 contains four independent, internally compensated amplifiers, allowing one package to provide feedback control, buffering, signal conditioning, or differential-to-single-ended conversion. In the power-management hierarchy, it is an analog signal-chain IC rather than a voltage regulator, although its wide supply tolerance makes it useful in industrial and automotive power systems.

The headline specifications include four amplifier circuits, a 1.2 MHz gain-bandwidth product, a 0.5 V/us slew rate, and approximately 2 mV offset voltage. The device also provides a typical common-mode rejection ratio of 80 dB and an input bias current of 20 nA. Its 30 V operating capability suits 12 V automotive systems, industrial control equipment, audio electronics, and instrumentation while allowing operation from lower single-supply voltages.

Each amplifier is frequency compensated and optimized for general-purpose analog design rather than high-speed differential signaling. A 1.2 MHz gain-bandwidth product is most useful at moderate closed-loop gains, while the 0.5 V/us slew rate limits large-signal response at low frequencies. The four independent channels can be configured independently for noninverting, inverting, comparator-like, summing, and feedback-amplifier circuits, subject to common-mode and output-swing limitations.

Typical uses include automotive sensor interfaces, battery-powered monitoring equipment, active filters, audio preamplifiers, industrial transducers, and general-purpose control loops. Four amplifiers in one SOIC-14 package reduce board area and component count when several low-frequency analog channels are required. The automotive qualification makes the LM2902-Q1 family especially suitable for body electronics, actuator interfaces, and vehicle sensing systems.

Design with the supply voltage, input common-mode range, output swing, input bias current, and capacitive-load drive in mind. Decoupling capacitors should be placed close to the supply pins, and sensitive input traces should be kept away from switching nodes. Because the gain-bandwidth and slew-rate limits are modest, verify stability with the intended feedback network and load capacitance before scaling the design into production.

This page combines manufacturer specifications, lifecycle information, application guidance, and same-footprint alternatives. It also provides practical design notes and parameter comparisons that help engineers distinguish functionally similar LM2902 variants and choose a suitable replacement without assuming that every ordering code is electrically identical.

Аналоги без доработки для LM2902KAVQDRQ1 — тот же корпус, pin-to-pin совместимость. Компоненты в других корпусах, требующие переработки PCB, исключены.

Варианты в этой серии

Модели той же серии, совместимые без доработки с LM2902KAVQDRQ1 (тот же форм-фактор и посадочное место) — отличается по Maximum Supply Voltage, Amplifier Type, Input Bias Current, Operating Temperature Range, RoHS Status.

Texas Instruments
Maximum Supply Voltage: 26 V
RoHS Status: unknown
Сравнить с LM2902KAVQDRQ1 →
Texas Instruments
Maximum Supply Voltage: 26 V
Amplifier Type: General purpose
Input Bias Current: -0.5 µA
Сравнить с LM2902KAVQDRQ1 →

LM2902KVQDRQ1

✅ Прямая замена
Texas Instruments
📦 SOIC-14
4 channels · 26 V · 1.2 MHz · 2 mV · 80 dB · 0.5 V/µs · -0.5 µA · -55 °C to +125 °C

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LM2902KVQDRG4Q1

✅ Прямая замена
Texas Instruments
📦 SOIC-14
4 channels · Quad, general-purpose, voltage-feedback operational amplifier · 5 V to 30 V · 1.2 MHz · 0.5 V/us · 10,000 uV (10 mV) · 80 dB · 0.5 uA class

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LM2902QDRG4Q1

✅ Прямая замена
Texas Instruments
📦 SOIC-14
General Purpose · 4 circuits · 4 amplifiers · 1.2 MHz · 0.5 V/µs · 5 V · -0.5 µA · 80 dB

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LM2902BKVQDRQ1

✅ Прямая замена
📦 SOIC-14
Next-generation LM2902B-Q1 family with 4 high-voltage operational amplifiers and a 36 V class supply range versus the target's 30 V maximum

📋 Справочный аналог (нет в каталоге)

LM2902DR

✅ Прямая замена
Texas Instruments
📦 SOIC-14
Quad operational amplifier · 4 · 26 V · 1.2 MHz · 2 mV · Single supply or split supply · Push-pull

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LM2902DR

✅ Прямая замена
Texas Instruments
📦 SOIC-14
Quad operational amplifier · 4 · 26 V · 1.2 MHz · 2 mV · Single supply or split supply · Push-pull

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LM2902KAVQDRQ1 Максимальные параметры и электрические характеристики

Number of Amplifier Circuits 4 circuits
Maximum Supply Voltage 30 V
Gain-Bandwidth Product 1.2 MHz
Input Offset Voltage 2 mV
Slew Rate 0.5 V/us
Input Bias Current 20 nA
Common-Mode Rejection Ratio 80 dB
Enhanced ESD Rating 2 kV
Диапазон рабочих температур -55 C to +125 C
Supply Voltage in Test Condition 5 V
Amplifier Type General-purpose operational amplifier
Количество выводов 14 pins
Package Type SOIC-14
Тип монтажа Surface mount
Packaging Tape and reel
Automotive Qualification AEC-Q100 qualified
Статус RoHS Compliant
MSL 1 - 260 C unlimited floor life
Product Status Active

Руководство по цоколевке LM2902KAVQDRQ1 в корпусе soic-14

Цоколевка для LM2902KAVQDRQ1 (корпус soic-14). Этот аналоговый компонент имеет выводы входа, выхода и питания. Обратитесь к техническому описанию производителя для конфигураций выводов балансировки нуля, коррекции и разрешения. Идеально подходит для схем обработки сигналов и усилителей.

Схема цоколевки корпуса soic-14 для LM2902KAVQDRQ1

Нет подробных данных о распиновке для LM2902KAVQDRQ1.

Обратитесь к даташиту для полной конфигурации выводов.

Типичное применение

LM2902KAVQDRQ1 подходит для 6 применениеs: Automotive Sensor Signal Conditioning, Industrial Transducer Interface, Active Audio Preamp, Battery-Powered Monitoring System, Power Supply Feedback Control, Data Acquisition Front End.

🚗

Automotive Sensor Signal Conditioning

The LM2902KAVQDRQ1 fits automotive sensor interfaces that need several low-frequency amplification stages in a compact package. Its four independent channels can condition resistive, resistive-divider, or low-current sensor outputs while the 30 V maximum supply and -55 C to +125 C operating range support demanding vehicle environments. The 1.2 MHz gain-bandwidth product is appropriate for bandwidths far below the amplifier limit, and the 20 nA input bias current helps avoid loading high-impedance sources. AEC-Q100 qualification makes the LM2902-Q1 family suitable for automotive qualification programs when the exact ordering code is confirmed. Practical designs should still check the input common-mode range, output swing, sensor excitation noise, and fault margins.

🏭

Industrial Transducer Interface

The LM2902KAVQDRQ1 is useful for buffering and amplifying low-level industrial transducer signals when one board must process several analog channels. Its four internal amplifiers can implement non-inverting stages, active filters, differential-to-single-ended conversion, and output drivers without using four separate packages. A 1.2 MHz gain-bandwidth product supports moderate closed-loop gains, while the 0.5 V/us slew rate is suitable for slow sensor and control signals rather than high-speed communications. The wide 30 V supply capability simplifies interface design around 24 V industrial systems, provided each input and output remains inside the specified common-mode and swing limits. Use short feedback routes, local supply decoupling, and guarded input traces to reduce noise pickup.

🎧

Active Audio Preamp

The LM2902KAVQDRQ1 can form a low-cost four-channel audio preamplifier for line-level signals in automotive, industrial, or communication equipment. Its four independent amplifier channels support multiple stereo or mono stages, and the 1.2 MHz gain-bandwidth product provides ample response for audio-band amplification. The 0.5 V/us slew rate is comfortably above the demands of most audio signals but does not make the device appropriate for wideband video or high-frequency signal paths. The 2 mV input offset is reasonable for general audio conditioning. Designers should provide adequate output-current margin for the chosen load, check the output swing on the selected supply, and bypass the supply pins close to the package to prevent channel-to-channel modulation.

🧩

Battery-Powered Monitoring System

The LM2902KAVQDRQ1 fits battery-powered environmental and equipment monitors that require several amplification functions at modest signal bandwidth. It can combine sensor buffering, gain-stage amplification, active filtering, and a comparator-style control amplifier in one SOIC-14 package. The 20 nA input bias current is beneficial when driving high-impedance sensors, and the four-channel integration reduces both board area and component count. Because the gain-bandwidth product is 1.2 MHz and the slew rate is 0.5 V/us, the device is best suited to slow or audio-band monitoring signals. Verify the current drawn by the complete circuit, confirm that the supply remains within the allowed range, and include protection against transients when the device is connected to long external leads.

⚡

Power Supply Feedback Control

The LM2902KAVQDRQ1 can implement error amplifiers and feedback-control elements in linear or supervisory power circuits because it combines four compensated amplifiers with a 30 V maximum supply. One channel may amplify the feedback error, while remaining channels provide signal conditioning, filtering, or auxiliary control functions around a switching or linear regulator. Its 1.2 MHz bandwidth and 0.5 V/us slew rate suit compensation loops operating at moderate frequencies. The key design constraint is loop stability: select feedback and compensation components against the amplifier and load characteristics, check the output-current capability, and keep the feedback node away from switching nodes. Automotive implementations should use the correctly qualified ordering code and apply the program's component and process-change controls.

📺

Data Acquisition Front End

The LM2902KAVQDRQ1 is applicable to the analog front end of a moderate-speed data-acquisition system requiring multiple amplifier channels. The four channels can perform instrumentation-style differential conversion, gain, filtering, and driver functions before a higher-resolution converter. Its 80 dB common-mode rejection ratio is useful when the signal is small relative to the common-mode voltage, although the application must remain within the input common-mode range. The 1.2 MHz gain-bandwidth product and 2 mV offset are suitable for many low-to-moderate-resolution systems, but they are not sufficient by themselves for precision or high-speed conversion. Keep input paths short, use matched resistors for differential networks, and decouple each supply connection close to the device.

What is the operating voltage of LM2902KAVQDRQ1?
The LM2902KAVQDRQ1 is specified for operation with a maximum supply voltage of 30 V. According to the Texas Instruments LM2902-Q1 datasheet, the device is a four-amplifier general-purpose op amp designed for wide-supply operation and includes an automotive-qualified variant. Its 5 V test condition applies to a specific characterization setup and should not be interpreted as the only supported supply. Confirm that the input common-mode and output-swing requirements of the intended circuit remain satisfied at the selected supply voltage.
What are the key specifications of LM2902KAVQDRQ1 that engineers should know?
The LM2902KAVQDRQ1 combines four amplifier circuits, a 30 V maximum supply, a 1.2 MHz gain-bandwidth product, a 2 mV input offset voltage, and a 0.5 V/us slew rate in a 14-pin SOIC package. Texas Instruments also identifies an 80 dB common-mode rejection ratio, 20 nA input bias current, and 2 kV enhanced ESD capability. These characteristics place the part in the general-purpose, low-frequency analog amplification category rather than the precision or high-speed op-amp categories.
Where can I download the LM2902KAVQDRQ1 datasheet PDF?
The official LM2902KAVQDRQ1 technical information is available from the Texas Instruments product page and the LM2902-Q1 part-details page. According to Texas Instruments, the LM2902-Q1, LM2902B-Q1, and LM2902BA-Q1 families share the automotive-qualified operational-amplifier platform. Use the manufacturer data sheet for the complete ordering-information table, absolute maximum ratings, electrical characteristics, pin configuration, and application guidance before releasing a production schematic.
Where can I find the LM2902KAVQDRQ1 pinout?
The LM2902KAVQDRQ1 pin configuration is documented in the pin-configuration section of the Texas Instruments LM2902-Q1 manufacturer data sheet. The device uses a 14-pin SOIC and contains four independent operational amplifiers. Use the manufacturer diagram when assigning input, output, supply, and no-connect pins because the numbering in an SOIC drawing starts at the marked corner and proceeds around the package. Confirm orientation against the actual footprint and land pattern before assembly.
Can LM2902KVQDRQ1 replace LM2902KAVQDRQ1?
Yes, the LM2902KVQDRQ1 is a same-manufacturer, same-package candidate for reviewing as a replacement for the LM2902KAVQDRQ1. Cross-reference information identifies both as 14-SOIC, four-channel devices with a 1.2 MHz gain-bandwidth product, while the LM2902-Q1 family is described as a drop-in replacement for its compared device. Final equivalence still depends on the ordering suffix, temperature grade, qualification status, and the electrical limits relevant to the target application.
What is the best drop-in replacement for LM2902KAVQDRQ1?
The strongest same-brand replacement candidates are LM2902KVQDRQ1, LM2902KVQDRG4Q1, and LM2902QDRG4Q1 because cross-reference information identifies matching 14-pin SOIC packages and four-channel, 1.2 MHz amplifier configurations. A drop-in decision must also compare voltage range, offset voltage, slew rate, input bias current, temperature range, and qualification. Because the suffix can encode meaningful differences, use the manufacturer ordering table rather than relying on the base family name alone.
What can replace LM2902KAVQDRQ1?
The LM2902KAVQDRQ1 can be replaced only after confirming package pinout, electrical limits, temperature range, and automotive qualification. Cross-reference results identify the TI LM2902KVQDRQ1 and LM2902KVQDRG4Q1 as close functional alternatives in the same SOIC-14 class, while industry-standard LM2902 devices from other manufacturers may also offer pin-compatible implementations. Review offset, bandwidth, slew rate, common-mode range, output swing, noise, and load-drive requirements before substitution.
Is LM2902KAVQDRQ1 the same as LM2902KVQDRQ1?
The LM2902KAVQDRQ1 and LM2902KVQDRQ1 are closely related LM2902-Q1 ordering variants, but their suffixes should not be treated as interchangeable without checking the ordering table. Cross-reference information identifies both as 14-SOIC, four-channel amplifiers with a 1.2 MHz gain-bandwidth product. The K and V ordering characters can affect lead finish, packaging, or qualification details, so the manufacturer part-selection data should be the authority for a formal PCB and qualification decision.
LM2902KAVQDRQ1 vs LM2902KVQDRQ1 - which is better for automotive control?
The LM2902KVQDRQ1 is a strong same-package candidate for a drop-in review, while the LM2902KAVQDRQ1 is the target automotive-qualified ordering option. Both are associated with the LM2902-Q1 family, which Texas Instruments states is qualified to AEC-Q100 specifications. The better choice depends on the exact suffix, qualification record, temperature grade, and ordering details. For a safety- or quality-critical automotive design, confirm the selected ordering code directly in the manufacturer automotive qualification documentation.
What is the difference between LM2902KAVQDRQ1 and LM2902QDRG4Q1?
Both devices provide four general-purpose amplifiers in a 14-SOIC package, and cross-reference information identifies the LM2902QDRG4Q1 as functionally comparable. The most important difference is the ordering family and its associated qualification, temperature, and manufacturing controls. The LM2902KAVQDRQ1 belongs to the automotive LM2902-Q1 offering, whereas the LM2902QDRG4Q1 is identified separately in the comparison results. Verify all ordering suffixes and automotive qualification requirements before using it as a production substitute.
When should I choose LM2902KAVQDRQ1 over LM2902QDRG4Q1?
Choose the LM2902KAVQDRQ1 when the design specifically requires the automotive-qualified LM2902-Q1 ordering family and four general-purpose amplifiers in a 14-pin SOIC package. Its 30 V maximum supply, 1.2 MHz gain-bandwidth product, 2 mV offset voltage, and extended -55 C to +125 C temperature range suit vehicle and industrial analog interfaces. Choose the LM2902QDRG4Q1 only when its complete ordering, qualification, and electrical characteristics are acceptable for the intended design.
Is LM2902KAVQDRQ1 suitable for battery-powered sensor interfaces?
Yes, the LM2902KAVQDRQ1 is suitable for many low-frequency battery-powered sensor interfaces when its supply and common-mode limits meet the circuit requirements. Its four integrated amplifiers can support buffering, amplification, and active filtering, while the 20 nA input bias current helps limit input-stage loading on high-impedance sensors. A 5 V supply is useful for many 12 V automotive subsystems with regulated rails. The 1.2 MHz bandwidth and 0.5 V/us slew rate suit low-bandwidth sensing rather than high-speed waveform work.
Where to buy LM2902KAVQDRQ1 online?
Use the Request a Quote form on this page to request LM2902KAVQDRQ1 pricing, stock confirmation, lead time, and order handling. The form allows the request to be matched to the exact 14-SOIC tape-and-reel ordering code without relying on a family-level listing. Before placing an order, confirm that the requested suffix matches the required automotive qualification, temperature range, lead finish, and reel configuration. The manufacturer product page remains the authority for the part's ordering information.
What is the price of LM2902KAVQDRQ1?
Current LM2902KAVQDRQ1 pricing is available through the Request a Quote form on this page. Submit the exact MPN, required quantity, shipment destination, and preferred packaging so the quote reflects the correct ordering code and quantity breaks. A family-level LM2902 price may not reflect the automotive-qualified suffix, reel configuration, or purchasing volume needed for the target design. The form also allows stock and lead-time confirmation to be obtained with the commercial offer.
What is the lead time and stock status for LM2902KAVQDRQ1?
Request the current LM2902KAVQDRQ1 lead time, stock quantity, and minimum order quantity through the Request a Quote form on this page. Texas Instruments lists the related LM2902-Q1 product family as an automotive-qualified operational-amplifier offering, while a distributor listing identifies LM2902KAVQDRQ1 as an active product. Commercial availability can vary with the exact suffix and reel configuration, so obtain a current manufacturing commitment rather than relying on a generic family-level estimate.
How should LM2902KAVQDRQ1 be decoupled and laid out?
Place the supply-decoupling capacitor close to the device's positive and negative supply pins, and route sensitive input and feedback connections away from switching power nodes and high-current return paths. The four amplifiers share a package and supply pins, so inadequate decoupling can couple disturbance between channels. Keep the feedback loop short and verify stability with the intended load and capacitance. Texas Instruments designates the LM2902-Q1 as AEC-Q100 qualified for automotive use, so layout, derating, and component selection should also follow the application's automotive design requirements.

Справочные инженерные данные для LM2902KAVQDRQ1 — сравнение, рекомендации по проектированию и информация о соответствии.

Руководство по выбору

Choose the LM2902KAVQDRQ1 when the design needs four general-purpose operational amplifiers in a 14-pin SOIC package, a supply approaching 30 V, operation from -55 C to +125 C, and an AEC-Q100-qualified ordering family. Its 1.2 MHz gain-bandwidth product and 0.5 V/us slew rate are well suited to sensor interfaces, active filters, audio preamplification, and low-frequency control loops. Consider the LM2902KVQDRQ1 or LM2902KVQDRG4Q1 when a direct review of another same-package TI ordering option is preferred, but verify every suffix and qualification record. Consider the LM2902BKVQDRQ1 when the next-generation 36 V-class family better matches the supply design. A cross-brand LM2902DR may fit the SOIC-14 footprint, but automotive qualification and all electrical limits must be independently confirmed. In every case, check common-mode range, output swing, offset, bandwidth, noise, load drive, and temperature before approving a substitution.

Сравнение с аналогами

Параметр Этот товар LM2902KVQDRQ1 LM2902KVQDRG4Q1 LM2902QDRG4Q1 LM2902BKVQDRQ1 LM2902DR
Package SOIC-14 SOIC-14 - same SOIC-14 - same SOIC-14 - same SOIC-14 - same SOIC-14 - same
Brand Texas Instruments Texas Instruments Texas Instruments Texas Instruments Texas Instruments STMicroelectronics
Number of Amplifiers 4 circuits 4 circuits 4 circuits 4 circuits 4 circuits 4 circuits

Ключевые отличия

  • Four automotive-qualified amplifiers in one package (против LM2902DR)
  • Direct same-package family review (против LM2902KVQDRQ1)
  • Extended-temperature automotive application range (против LM2902QDRG4Q1)
  • Upgraded high-voltage family alternative (против LM2902BKVQDRQ1)

Заметки по проектированию

Place the supply-decoupling capacitor immediately adjacent to the positive and negative supply pins of the SOIC-14 package. Because the package contains four amplifiers, shared supply impedance can allow disturbance on one channel to appear at the outputs of another. Keep non-inverting inputs, inverting inputs, and feedback components away from switching-regulator outputs and high-current return paths. Use a continuous ground reference beneath the device and route each channel's feedback loop on the same PCB layer to minimize parasitic pickup.

Do not interpret the 30 V maximum supply rating as permission to apply 30 V across every operating condition. Verify the input common-mode range, output-voltage swing, supply-current limits, and load capability for the selected gain and frequency. The 1.2 MHz gain-bandwidth product is well above the requirements of many sensor and audio applications, but noise gain, load capacitance, and feedback-network impedance can still affect stability. Start with the manufacturer’s recommended feedback values and validate the final board with the actual source and load impedances.

Estimated power dissipation is proportional to total supply voltage times the sum of all four amplifier currents plus quiescent current. With a 30 V maximum-supply design, a 1 mA total load would dissipate about 30 mW before layout losses; with a 10 mA total load, the estimate rises to about 300 mW. These calculations are estimates using the stated current assumptions, not maximum-power ratings. Check the SOIC-14 thermal resistance, copper area, ambient temperature, and automotive temperature-rise requirements at the highest expected load.

For high-impedance sensors, keep input leakage current and board contamination in mind because the specified input bias current is approximately 20 nA. Use protective resistors, guard traces, and clean board surfaces where necessary. The 80 dB common-mode rejection ratio helps reject common-mode noise, but it cannot correct a design that exceeds the input common-mode range or places sensitive nodes next to switching circuitry. Verify offset and bias errors against the sensor’s smallest meaningful signal before setting the closed-loop gain.

Информация о соответствии

RoHS
Compliant
REACH
Unknown
AEC-Q100
Qualified
Без свинца
Unknown
Без галогенов
Unknown
Конфликтные минералы
Unknown

Texas Instruments states that the LM2902-Q1 family is qualified for automotive use in accordance with AEC-Q100 specifications. RoHS compliance is identified for LM2902KAVQDRQ1. REACH, lead-free, halogen-free, and conflict-minerals status were not established explicitly.

Данные проверены: 2026-11-06 — данные проверены и курируются командой компонентной инженерии XAIPART

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Связанные компоненты & термины

Texas Instruments LM2902KAVQDRQ1 LM2902KVQDRQ1 LM2902KVQDRG4Q1 LM2902QDRG4Q1 LM2902BKVQDRQ1 LM2902DR LM2902-Q1 operational amplifier quad operational amplifier analog integrated circuit signal-chain IC semiconductor SOIC-14 SOIC family surface-mount package SMD AEC-Q100 RoHS REACH gain-bandwidth product slew rate common-mode rejection ratio input offset voltage automotive sensor interface
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