Images are for reference only
LT1013DDR
+BOM-
ManufacturerTexas Instruments
-
Mfr. Part #LT1013DDR
-
In Stock4759
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),Bulk |
| ProductStatus | Active |
| AmplifierType | General Purpose |
| NumberofCircuits | 2 |
| SlewRate | 0.4V/µs |
| GainBandwidthProduct | 1 MHz |
| Current-InputBias | 18 nA |
| Voltage-InputOffset | 90 µV |
| Current-Supply | 320µA (x2 Channels) |
| Voltage-SupplySpan(Min) | 5 V |
| Voltage-SupplySpan(Max) | 30 V |
| OperatingTemperature | 0°C ~ 70°C (TA) |
| MountingType | Surface Mount |
| Package/Case | 8-SOIC (0.154, 3.90mm Width) |
Overview
Description
The LT1013 series is known for its high performance in both single and dual-supply operations, making it versatile for various applications. The DDR suffix typically indicates a specific package type or temperature rating, although specific details may vary.
Key features of the LT1013DDR include:
1. Low Input Offset Voltage: Ensures minimal error in signal processing.
2. Low Offset Voltage Drift: Provides stability across temperature changes.
3. Wide Supply Voltage Range: Allows for flexible integration into different circuits.
4. Low Power Consumption: Suitable for battery-operated devices.
5. High Common-Mode Rejection Ratio (CMRR): Enhances performance in noisy environments.
These attributes make the LT1013DDR suitable for instrumentation, data acquisition systems, and other applications requiring precise analog signal processing.
Equivalent
Features
1. Low Offset Voltage: It has a low input offset voltage, typically around 50µV, ensuring high precision.
2. Low Drift: The device features a low offset voltage drift over temperature, enhancing stability and accuracy in varying conditions.
3. Low Noise: It produces low noise, making it suitable for applications requiring high signal integrity.
4. Low Bias Current: With low input bias current, it is ideal for high-impedance sensor applications.
5. Wide Supply Range: Operates over a wide supply voltage range, typically from ±2V to ±22V, making it versatile for various systems.
6. High Gain: Offers a high open-loop gain, essential for accurate amplification.
7. Slew Rate: Provides a moderate slew rate, balancing speed and stability.
8. No Phase Reversal: Ensures reliable performance without signal inversion issues.
9. Temperature Range: Designed to operate over a wide temperature range, suitable for industrial applications.
These features make the LT1013DDR suitable for precision analog applications, including instrumentation, medical devices, and sensor signal conditioning.
Pinout
1. Pin 1 (OUT A): Output of the first operational amplifier.
2. Pin 2 (IN- A): Inverting input of the first operational amplifier.
3. Pin 3 (IN+ A): Non-inverting input of the first operational amplifier.
4. Pin 4 (V- or GND): Negative power supply or ground.
5. Pin 5 (IN+ B): Non-inverting input of the second operational amplifier.
6. Pin 6 (IN- B): Inverting input of the second operational amplifier.
7. Pin 7 (OUT B): Output of the second operational amplifier.
8. Pin 8 (V+): Positive power supply.
The LT1013DDR is designed for precision applications, offering low input offset voltage and drift, as well as low input bias current. It operates with both single and dual power supplies.
Manufacturer
In 2017, Linear Technology was acquired by Analog Devices, Inc. (ADI), a major player in the semiconductor industry that focuses on developing analog, mixed-signal, and digital signal processing technologies. ADI is known for its significant contributions to high-performance signal processing and is well-regarded for its robust portfolio of products serving a wide array of industries including healthcare, automotive, communications, and industrial applications. After the acquisition, the products originally produced by Linear Technology, including the LT1013DDR, became part of ADI's product offerings.
Application
1. Instrumentation Amplifiers: For accurate signal amplification in measurement systems.
2. Medical Devices: In applications like ECG and EEG machines where precision is crucial.
3. Data Acquisition Systems: Ensuring accurate data conversion and processing.
4. Weigh Scales: For precise measurement in industrial and commercial scales.
5. Temperature Sensors: Enhancing accuracy in temperature measurement and control systems.
6. Portable Devices: Used in battery-powered applications due to low power consumption.
7. Transducer Interfaces: In systems that convert physical signals to electrical signals.
These applications benefit from the amplifier's stability, low noise, and high reliability.