Microchip Technology

MCP662-E/SN - Dual 60MHz Rail-to-Rail Op Amp | Microchip

MPN: MCP662-E/SN ✓ פעיל
2.5 V to 5.5 V Vdss 0.0050 uA typical Id 8-pin SOIC, 3.90 mm Package
כמות הזמנה מינימלית: 1 |

MCP662-E/SN סקירה

The Microchip Technology MCP662-E/SN is a dual operational amplifier with a 60 MHz typical gain-bandwidth product, 32 V/us typical slew rate, and rail-to-rail output in an 8-pin SOIC package. Designed for low-voltage signal processing, it operates from 2.5 V to 5.5 V and supports an extended temperature range from -40 C to 125 C.

An operational amplifier is a voltage-controlled differential amplifier that uses feedback to amplify the difference between two input signals. The MCP662 belongs to the CMOS operational-amplifier hierarchy within analog and mixed-signal semiconductors. Its combination of high bandwidth, high output short-circuit current, and low-noise performance makes it suitable for filtering, buffering, sensor conditioning, audio signal paths, and communications equipment operating from a single low-voltage supply.

Key electrical features include a 79 dB typical common-mode rejection ratio, 6.8 nV/Hz typical input-voltage noise at 1 MHz, and a 90 mA typical output short-circuit current. The two-amplifier configuration allows one package to support simultaneous signal paths. Rail-to-rail output capability improves dynamic range when signals approach the positive or negative supply limits, while the 2.5 V minimum supply supports portable and embedded systems powered from regulated 3.3 V or lower rails.

The MCP66x family is optimized for high-speed operation. Its 60 MHz gain-bandwidth product allows operation at moderate closed-loop gains, and the 32 V/us slew rate supports rapid transitions in filtering, waveform generation, and data-conversion interface circuits. The 90 mA typical short-circuit current provides drive capability for capacitive loads and higher-impedance downstream stages, although external isolation may still be required for large capacitive loads.

Typical uses include low-voltage audio signal conditioning, ADC and DAC input or output buffering, active filters, portable instrumentation, industrial sensor interfaces, and communications equipment. The dual configuration can implement two independent amplifier channels or a differential signal-conditioning stage when the circuit requirements match.

Designers should verify stable operating-gain configurations, output-capacitance limits, input-bias behavior, and noise performance using the manufacturer datasheet. Place bypass capacitance close to the supply pins, provide adequate output-current margin, and use resistive isolation when driving large capacitive loads or long PCB traces.

This page combines the MCP662-E/SN electrical characteristics with same-package alternatives, application guidance, comparison parameters, and practical PCB design notes. It is intended to help engineers confirm footprint compatibility, speed, noise, supply range, and thermal requirements before integrating the amplifier into a new analog signal chain.

חלופות תחליף ישיר עבור MCP662-E/SN — אותו מארז, תואם פין-לפין. חלקים במארז שונה הדורשים עיבוד מחדש של ה-PCB אינם נכללים.

MCP652T-E/SN

✅ Drop-In
📦 8-pin SOIC
Gain-bandwidth product is 50 MHz versus 60 MHz (-16.7%), and slew rate is 20 V/us versus 32 V/us (-37.5%); standard dual-op-amp pin functions and SOIC footprint are retained.

📋 חלופה להתייחסות (לא בקטלוג)

MCP667-E/SN

✅ Drop-In ⚠️ מפרטים לא מאומתים
📦 8-pin SOIC
Gain-bandwidth product is approximately 60 MHz, matching the MCP662-E/SN, while slew rate is approximately 25 V/us versus 32 V/us (-21.9%).

📋 חלופה להתייחסות (לא בקטלוג)

MCP666-E/SN

✅ Drop-In ⚠️ מפרטים לא מאומתים
📦 8-pin SOIC
Gain-bandwidth product is approximately 50 MHz versus 60 MHz (-16.7%), and slew rate is approximately 20 V/us versus 32 V/us (-37.5%).

📋 חלופה להתייחסות (לא בקטלוג)

MCP662-E/SN דירוגים מרביים ומאפיינים חשמליים

Amplifier Type Operational amplifier
Number of Amplifiers 2 circuits
Gain-Bandwidth Product 60 MHz typical
Slew Rate 32 V/us typical
סוג פלט Rail-to-rail output
Supply Voltage Range 2.5 V to 5.5 V
Input Bias Current 0.0050 uA typical
Common-Mode Rejection Ratio 79 dB typical
Output Short-Circuit Current 90 mA typical
Input Voltage Noise 6.8 nV/Hz typical at 1 MHz
טווח טמפרטורת פעולה -40 C to 125 C
מארז 8-pin SOIC, 3.90 mm
סוג הרכבה Surface mount
סטטוס RoHS Compliant

מדריך תצורת פינים של MCP662-E/SN 8-pin soic, 3.90 mm

תצורת פינים עבור MCP662-E/SN (מארזת 8-pin soic, 3.90 mm). רכיב אנלוגי זה כולל פיני כניסה, יציאה ואספקת מתח. יש לעיין בגיליון הנתונים של היצרן לתצורות פיני איפוס היסט, פיצוי והפעלה. אידיאלי למעגלי עיצוב אותות ומגברים.

תרשים פינים של מארזת 8-pin soic, 3.90 mm עבור MCP662-E/SN

אין נתוני פריסת פינים מפורטים עבור MCP662-E/SN.

עיינו ב- גיליון נתונים עבור תצורת פינים מלאה.

יישומים טיפוסיים

MCP662-E/SN מתאים עבור 6 יישוםs: Active Audio Filtering, ADC Input Signal Conditioning, Portable Sensor Conditioning, Low-Voltage Communications Interface, Instrumentation Buffering, Industrial Control Signal Interface.

🎧

Active Audio Filtering

The MCP662-E/SN fits dual-stage active filtering for low-voltage audio signals because its 60 MHz typical gain-bandwidth product provides bandwidth margin above the passband and its 32 V/us typical slew rate supports rapid signal transitions. The rail-to-rail output can improve utilization of a 2.5 V to 5.5 V supply when the filter waveform approaches either rail. Its 6.8 nV/Hz typical input-voltage noise at 1 MHz is also useful for reducing broadband contributions in buffered audio paths. Each amplifier channel can implement a separate filter section, allowing a balanced preamplifier or stereo crossover with a common package. The engineer should set resistor and capacitor values against the required gain, check stability, and keep source impedances within the manufacturer recommendations.

🖥️

ADC Input Signal Conditioning

The MCP662-E/SN is appropriate for high-speed ADC input conditioning where a source must be buffered before conversion. Its 60 MHz typical gain-bandwidth product supports signal paths requiring substantially more bandwidth than many general-purpose precision amplifiers, while the 32 V/us typical slew rate reduces distortion during full-scale input transitions. The dual package can buffer two channels or provide gain and filtering functions in a differential front end. Rail-to-rail output operation is valuable when the ADC input range approaches the amplifier supply voltage. A practical design should use the converter's recommended source impedance and settling requirements, verify common-mode limits, and place the amplifier close enough to the ADC to minimize trace sensitivity.

🧩

Portable Sensor Conditioning

The MCP662-E/SN can condition outputs from sensors whose bandwidth rises above the range of low-power amplifier families. The 2.5 V minimum supply voltage supports compact 3.3 V systems, while the 0.0050 uA typical input bias current minimizes loading on high-impedance sensors. Its 60 MHz bandwidth and 32 V/us slew rate preserve fast transients from motion, optical, or industrial sensing elements, and the dual configuration can process complementary or redundant channels. Rail-to-rail output improves dynamic range when the conditioned signal must occupy much of the available supply range. Designers should account for sensor output capacitance, amplifier stability, input protection, and the higher current draw associated with a high-speed CMOS amplifier during battery-life analysis.

🌐

Low-Voltage Communications Interface

The MCP662-E/SN is useful for communications equipment requiring rapid analog signal transitions in a compact dual-op-amp package. Its 60 MHz typical gain-bandwidth product supports gain stages and impedance buffers operating well above audio frequencies, while the 32 V/us typical slew rate helps preserve waveform shape. The 90 mA typical output short-circuit current gives useful drive capability for downstream stages and capacitive loads encountered in communications modules. The rail-to-rail output allows a 2.5 V to 5.5 V design to maximize signal swing. Before layout release, check the maximum capacitive load, use series isolation where required, maintain short return paths, and confirm that adjacent switching circuitry does not overwhelm the amplifier's supply and input-noise performance.

🏭

Instrumentation Buffering

The MCP662-E/SN can provide fast differential and single-ended buffering in portable instrumentation. A typical differential arrangement uses one channel for the positive input and the other for the negative input, followed by a downstream subtraction stage or sampled by an ADC. The amplifier's 79 dB typical common-mode rejection ratio helps reject common-mode voltage, and its 60 MHz bandwidth handles transient instrumentation signals rather than only slow thermocouple or pressure signals. The 0.0050 uA typical input bias current reduces source-loading error with high-impedance sensors. Engineers should still evaluate resistor matching, input common-mode range, noise gain, output swing, and settling time. Precise layout and local supply bypassing remain important for preserving the benefit of the high-speed amplifier.

🔧

Industrial Control Signal Interface

The MCP662-E/SN fits industrial interface circuits that need faster edge rates than a general-purpose low-speed amplifier can provide. The dual-amplifier configuration can implement a gain stage and an active filter, or two independent line-driver channels. Its 60 MHz typical gain-bandwidth product and 32 V/us typical slew rate are useful when processing sensor signals, control-loop feedback, or actuator commands with modest transient content. Operation from 2.5 V to 5.5 V makes the device usable in distributed low-voltage control nodes. The -40 C to 125 C temperature range supports industrial environments. Design work should verify the actual output-current demand, maintain thermal margin, avoid excessive capacitive loading, and place supply-bypass components close to the package to limit supply ripple and transient coupling into the control signal.

What are the key specifications of MCP662-E/SN that engineers should know?
The MCP662-E/SN is a dual CMOS operational amplifier with a 60 MHz typical gain-bandwidth product, 32 V/us typical slew rate, and rail-to-rail output. It operates from 2.5 V to 5.5 V, offers 79 dB typical CMRR, 6.8 nV/Hz typical input noise at 1 MHz, and supports -40 C to 125 C operation. According to the Microchip MCP662 manufacturer datasheet, these characteristics position the device for low-voltage filtering, buffering, sensor conditioning, and signal-processing applications.
What is the operating voltage of MCP662-E/SN?
The MCP662-E/SN operates from 2.5 V to 5.5 V. This range supports regulated 3.3 V and low-voltage 5 V systems, subject to the voltage and current limits of each amplifier channel. According to the Microchip MCP662 manufacturer datasheet, rail-to-rail output allows the output voltage to approach the supply limits, making headroom checks important when driving low-voltage loads.
What is the gain-bandwidth product and slew rate of MCP662-E/SN?
The MCP662-E/SN has a 60 MHz typical gain-bandwidth product and a 32 V/us typical slew rate. The gain-bandwidth product indicates the approximate closed-loop bandwidth available at unity gain, while slew rate determines how rapidly the output can move between voltage levels. According to the Microchip MCP662 manufacturer datasheet, these speed specifications suit active filtering, signal buffering, waveform conditioning, and communications signal paths.
Is MCP662-E/SN suitable for low-voltage audio and sensor applications?
The MCP662-E/SN is suitable for low-voltage audio and sensor-conditioning circuits because it combines a 60 MHz typical gain-bandwidth product with 6.8 nV/Hz typical input-voltage noise at 1 MHz. Its rail-to-rail output can improve signal range on a 2.5 V to 5.5 V supply. According to the Microchip MCP662 manufacturer datasheet, engineers should still verify the required noise gain, signal bandwidth, and output load for each analog front end.
How much output current can MCP662-E/SN drive?
The MCP662-E/SN can source or sink 90 mA typical output current under short-circuit conditions. That rating indicates short-circuit drive capability rather than a guaranteed continuous-load limit. According to the Microchip MCP662 manufacturer datasheet, continuous output current depends on supply voltage, temperature, output swing, and thermal dissipation, so sustained loads should be evaluated against the output-current and thermal limits.
What is the difference between MCP662-E/SN and MCP652T-E/SN?
The MCP662-E/SN is faster, with a 60 MHz typical gain-bandwidth product and 32 V/us typical slew rate, while the MCP652T-E/SN provides lower bandwidth and slew performance. Both use an 8-pin SOIC format for board-level interchangeability. The MCP662-E/SN is preferable where wider closed-loop bandwidth, faster transitions, or lower-noise operation justifies the difference; according to the Microchip MCP662 manufacturer datasheet, final substitution should be checked for stability and output-load compatibility.
When should I choose MCP662-E/SN over a lower-speed dual op amp?
Choose the MCP662-E/SN when the signal path needs more than the bandwidth of a lower-speed dual amplifier. Its 60 MHz typical gain-bandwidth product and 32 V/us typical slew rate provide additional margin for active filters, ADC interfaces, waveform conditioning, and communications circuitry. The tradeoff is generally higher dynamic power use than a micropower amplifier, so a low-speed part may remain preferable in battery-powered systems that operate primarily below 100 kHz.
Can MCP662-E/SN replace MCP652T-E/SN in an existing PCB?
The MCP662-E/SN can be considered as a board-compatible replacement for MCP652T-E/SN because both use the same 8-pin SOIC format. The MCP662-E/SN provides higher speed, with a 60 MHz typical gain-bandwidth product and 32 V/us typical slew rate. According to the Microchip MCP662 manufacturer datasheet, verify unity-gain stability, input common-mode range, output swing, and capacitive-load behavior before production substitution.
What is the best drop-in replacement for MCP662-E/SN?
The closest same-package replacement identified for the MCP662-E/SN is the MCP662-E-family variant with matching speed and electrical characteristics, provided its temperature and order codes meet the assembly requirements. The package must remain an 8-pin SOIC and the amplifier must preserve dual-channel pin functions. For an exact footprint and functional match, compare the MPN suffix, temperature grade, and packing format before approving a substitution.
What can replace MCP662-E/SN?
A valid replacement for the MCP662-E/SN must be a dual operational amplifier in an 8-pin SOIC with rail-to-rail output and comparable speed. The MCP652T-E/SN is a board-compatible lower-speed option, while faster MCP66x-family variants may suit designs that require more bandwidth. According to the Microchip MCP662 manufacturer datasheet, confirm pin functions, supply range, stability, output swing, noise, and temperature grade before replacing the component.
Is MCP662-E/SN the same as MCP652T-E/SN?
The MCP662-E/SN and MCP652T-E/SN share an 8-pin SOIC format but are not electrically identical. The MCP662-E/SN has a 60 MHz typical gain-bandwidth product and 32 V/us typical slew rate, while the MCP652T-E/SN is slower. According to the Microchip MCP662 manufacturer datasheet, the MCP662-E/SN is preferable for faster signal paths, provided the replacement circuit still meets gain-bandwidth and stability requirements.
What is the best cross-brand equivalent for MCP662-E/SN?
The best cross-brand equivalent for the MCP662-E/SN must provide two amplifiers in an 8-pin SOIC with the same standard dual-op-amp pin functions, rail-to-rail output, and adequate speed for the target circuit. No cross-brand model is designated as a direct replacement without application-specific review. According to the Microchip MCP662 manufacturer datasheet, compare the 60 MHz bandwidth, 32 V/us slew rate, 2.5 V to 5.5 V supply range, stability, and output-load behavior before approving a substitute.
Where to download the MCP662-E/SN datasheet PDF?
Download the MCP662-E/SN documentation from the Microchip MCP662 product page. The product page links to the manufacturer datasheet and provides the authoritative pin description, electrical characteristics, application information, and ordering details. According to the Microchip MCP662 manufacturer datasheet, use the document associated with the MCP662 family and verify that the listed order code corresponds to the 8-pin SOIC and -40 C to 125 C temperature grade.
Where can I find the MCP662-E/SN pinout?
The MCP662-E/SN pinout is identified in the manufacturer datasheet under the MCP662 family pin-description information. The device is an 8-pin SOIC with two operational amplifiers and standard power connections. According to the Microchip MCP662 manufacturer datasheet, use the pin-description table when assigning PCB tracks, and verify the physical orientation marker because pin 1 starts at the marked end of the SOIC package.
Where can I buy MCP662-E/SN and what are its price and lead time?
Use the Request a Quote form on this page to request MCP662-E/SN pricing, stock status, and production lead time. The form is the appropriate channel for a current commercial quotation and can also confirm the exact 8-pin SOIC order code, temperature grade, and reel quantity. According to the Microchip MCP662 product information, the device is offered as the MCP662-E/SN general-purpose dual operational amplifier.

נתוני עזר הנדסיים עבור MCP662-E/SN — השוואה, הנחיות תכנון ומידע על תאימות.

מדריך בחירה

Choose the MCP662-E/SN for a low-voltage dual-amplifier design that benefits from 60 MHz bandwidth, 32 V/us slew rate, rail-to-rail output, and 6.8 nV/Hz typical input noise at 1 MHz. It is a strong fit for active filters, ADC interfaces, audio paths, and communications signal conditioning. Select MCP652T-E/SN when the same 8-pin SOIC footprint is needed but lower speed is acceptable; its approximately 50 MHz bandwidth and 20 V/us slew rate reduce transient performance. MCP667-E/SN provides approximately 60 MHz bandwidth but approximately 25 V/us slew rate, making it a reasonable option when edge rate matters less than bandwidth. MCP666-E/SN can serve lower-speed designs, but it offers less bandwidth and slew rate than the MCP662-E/SN. For any substitution, confirm supply range, rail-to-rail behavior, unity-gain stability, input common-mode range, output swing, capacitive-load tolerance, and temperature grade before releasing the PCB.

השוואה עם חלופות

פרמטר מוצר זה MCP652T-E/SN MCP667-E/SN MCP666-E/SN
Package 8-pin SOIC 8-pin SOIC 8-pin SOIC 8-pin SOIC
Brand Microchip Technology Microchip Technology Microchip Technology Microchip Technology
Number of Amplifiers 2 circuits 2 circuits 2 circuits 2 circuits
Gain-Bandwidth Product 60 MHz typical 50 MHz typical 60 MHz typical 50 MHz typical
Slew Rate 32 V/us typical 20 V/us typical 25 V/us typical 20 V/us typical

מבדילים עיקריים

  • Higher speed than the MCP652T-E/SN (לעומתMCP652T-E/SN)
  • Faster slew rate than the MCP667-E/SN (לעומתMCP667-E/SN)
  • Lower noise specification than the MCP666-E/SN (לעומתMCP666-E/SN)

הערות תכנון

Place the supply-bypass capacitor directly between the positive supply and ground pins, with the ground connection following the shortest practical return path. Keep sensitive input and feedback traces away from switching nodes and high-current outputs. Because the MCP662-E/SN has a 60 MHz typical gain-bandwidth product, board-level capacitance and long traces can materially affect high-frequency behavior. Use a continuous ground plane, minimize loop area around the device, and observe the manufacturer layout guidance.

Do not assume the 90 mA short-circuit-current rating is a continuous output-current rating. Check the datasheet output-current limits, output swing, temperature, and supply voltage for the intended load. Use a series isolation resistor when driving a capacitive input or long cable, and increase it as needed to maintain stability. Also verify that the selected closed-loop gain is stable for the specific feedback network rather than relying only on the nominal gain-bandwidth figure.

Calculate the operating power consumption from the supply voltage, quiescent current, output swing, and load current because the amplifier dissipates energy both internally and in the load. A 3.3 V design with one channel producing a 1 Vpp signal into 1 kohm dissipates approximately 3.3 mW in the load, while the amplifier adds its own internal and quiescent losses. Confirm junction-temperature margin at the highest ambient temperature and use exposed copper around the SOIC where the layout permits.

מידע על תאימות

RoHS
Compliant
REACH
Unknown
AEC-Q100
Not Applicable
נטול עופרת
Unknown
נטול הלוגנים
Unknown
מינרלים של סכסוך
Unknown

RoHS compliance is identified in the MCP662-E/SN product listing. Other environmental and material-compliance attributes are not specified.

חיפושים קשורים

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רכיבים ומונחים קשורים

Microchip Technology MCP662-E/SN MCP662 MCP66x family MCP652T-E/SN MCP667-E/SN MCP666-E/SN operational amplifier dual amplifier CMOS analog IC rail-to-rail output amplifier gain-bandwidth product slew rate common-mode rejection ratio input-voltage noise 2.5 V to 5.5 V supply 8-pin SOIC SOIC package family surface-mount package low-voltage signal conditioning active filter ADC interface audio signal chain RoHS industrial instrumentation
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