Images are for reference only
LMC660AIMX
+BOM-
ManufacturerTexas Instruments
-
Mfr. Part #LMC660AIMX
-
In Stock3362
365 Days Quality Guarantee
7*24 hours service quarantee
90-day after-sales guarantee
Genuine Product Guarantee
Specifications
| Attribute | Value |
| Package | Tape & Reel (TR),Cut Tape (CT) |
| Series | LMC® |
| ProductStatus | Not For New Designs |
| AmplifierType | CMOS |
| NumberofCircuits | 4 |
| OutputType | Push-Pull, Rail-to-Rail |
| SlewRate | 1.1V/µs |
| GainBandwidthProduct | 1.4 MHz |
| Current-InputBias | 0.002 pA |
| Voltage-InputOffset | 1 mV |
| Current-Supply | 1.5mA (x4 Channels) |
| Current-Output/Channel | 40 mA |
| Voltage-SupplySpan(Min) | 4.75 V |
| Voltage-SupplySpan(Max) | 15.5 V |
| OperatingTemperature | -40°C ~ 85°C |
| MountingType | Surface Mount |
| Package/Case | 14-SOIC (0.154, 3.90mm Width) |
Overview
Description
One of its key features is its rail-to-rail input and output capability, which maximizes dynamic range even with low supply voltages. This makes it particularly useful in battery-powered devices where maximizing performance per unit of power is crucial. The amplifier also boasts a low input bias current, often in the picoamp range, which is ideal for high-impedance sensor interfaces.
The LMC660AIMX comes in a standard 14-pin plastic small outline (SOIC) package, providing ease of integration into circuit designs. Its robust temperature range, typically from -40°C to +85°C, makes it reliable for use in different environmental conditions. Overall, the LMC660AIMX is suitable for precision, low-power, and space-constrained applications.
Equivalent
1. LM324 series by Texas Instruments
2. TL084 series by Texas Instruments
3. MCP6004 by Microchip Technology
4. LM6134 series by Texas Instruments
5. OPA4277 by Texas Instruments
These equivalents may have differences in specifications such as input voltage range, bandwidth, and power consumption, so it's essential to check the datasheets to ensure compatibility with your application.
Features
1. Low Power Consumption: It operates efficiently with a low supply current, making it suitable for battery-powered applications.
2. Wide Supply Range: Compatible with both single-supply (3V to 15V) and dual-supply (±1.5V to ±7.5V) configurations.
3. Input Common-Mode Range: The device has a rail-to-rail input common-mode voltage range, ensuring versatility in various applications.
4. Output Swing: It provides a large output voltage swing, close to the rail voltages, which maximizes dynamic range.
5. High Input Impedance: The amplifier features high input impedance, minimizing loading effects on previous stages.
6. Low Input Bias Current: Ideal for applications requiring precision with low input bias currents.
7. Open Loop Gain: It delivers high open-loop gain, which is essential for maintaining accuracy in closed-loop configurations.
8. Temperature Stability: The device maintains performance across a wide temperature range, ensuring reliability in different environments.
These characteristics make the LMC660AIMX suitable for a variety of applications, including sensor interfaces, portable devices, and precision instrumentation.
Pinout
1. V+ (Pin 4): Positive power supply.
2. V- (Pin 11): Negative power supply or ground.
3. Inverting Input 1 (Pin 2): Inverting input for Op-Amp 1.
4. Non-Inverting Input 1 (Pin 3): Non-inverting input for Op-Amp 1.
5. Output 1 (Pin 1): Output for Op-Amp 1.
6. Inverting Input 2 (Pin 6): Inverting input for Op-Amp 2.
7. Non-Inverting Input 2 (Pin 5): Non-inverting input for Op-Amp 2.
8. Output 2 (Pin 7): Output for Op-Amp 2.
9. Inverting Input 3 (Pin 9): Inverting input for Op-Amp 3.
10. Non-Inverting Input 3 (Pin 10): Non-inverting input for Op-Amp 3.
11. Output 3 (Pin 8): Output for Op-Amp 3.
12. Inverting Input 4 (Pin 13): Inverting input for Op-Amp 4.
13. Non-Inverting Input 4 (Pin 12): Non-inverting input for Op-Amp 4.
14. Output 4 (Pin 14): Output for Op-Amp 4.
The LMC660AIMX is used in applications requiring precision and low power, such as signal processing and sensor interfaces.
Manufacturer
Application
1. Sensor Signal Conditioning: Amplifies low-level signals from sensors for further processing.
2. Instrumentation Amplifiers: Forms the core of precision amplification circuits in measurement devices.
3. Active Filters: Used in designing low-pass, high-pass, band-pass, and band-stop filters.
4. Data Acquisition Systems: Enhances the accuracy and efficiency of data collection processes.
5. Battery-Powered Devices: Ideal for portable electronics due to its low power requirements.
6. Audio Applications: Used in preamplifiers and equalizers for audio signal processing.
These applications leverage its characteristics like low offset voltage, rail-to-rail output, and wide supply voltage range.