inventory:7,585
ADI
SOIC-8
AD667 (16)
AD667 is available from Analog Devices at Xecor. Designed for high-precision digital-to-analog conversion, the AD667 offers 12-bit resolution, fast settling time (4µs), and a high-stability buried Zener voltage reference. Available in a 28-Pin PDIP package, it is ideal for industrial control systems, test and measurement equipment, and precision instrumentation. Whether used in data acquisition systems or process control applications, this series ensures accuracy, reliability, and efficiency for demanding applications. Xecor is an authorized distributor for Analog Devices. Please view our extensive selection of the AD667 series below.
| Part Number | Description | Package | Inventory | Add To Bom |
|---|---|---|---|---|
| AD667JP | DAC 1-CH Current Steering 12-bit 28-Pin PLCC Tube | PLCC-28 | 6,559 | |
| AD667JN | This IC has a fast settling time of 3 microseconds, making it ideal for applications requiring quick response times | 28-DIP | 5,524 | |
| AD667JNZ | DAC 1-CH Current Steering 12-bit 28-Pin PDIP W Tube | 28-DIP | 8,509 | |
| AD667SE/883B | 12-bit resolution for accurate analog signal output | LCC-28 | 2,878 | |
| AD667SE | Compact and cost-effective solution for a wide range of industrial and commercial use | LCC-28 | 4,805 | |
| AD667KPZ-REEL | High-performance current steering DAC for precise output control | PLCC-28 | 2,558 | |
| AD667KPZ | Offers a reliable solution for various electronic systems | PLCC-28 | 7,605 | |
| 5962-8865901XA | High-performance parallel DAC with -bit resolution and ROHS compliance | CERDIP-28 | 6,755 | |
| AD667AD | DAC 1-CH Current Steering 12-bit 28-Pin SBCDIP Tube | SB-CDIP-28 | 7,328 | |
| AD667BD | Precision converter for crystal clear audio delivery | SB-CDIP-28 | 4,501 | |
| AD667JPZ | A high-resolution, -bit digital-to-analog converter for precise data conversion application | PLCC-28 | 3,484 | |
| AD667JPZ-REEL | Compact 28PLCC package for space-saving designs | PLCC-28 | 4,807 | |
| AD667KNZ | High-resolution DAC with output buffer in convenient 28-DIP package | PDIP-28 | 7,507 | |
| AD667SD | High-performance 12-bit DACs in CDIP-28 package | SB-CDIP-28 | 3,232 | |
| AD667SD/883B | DAC 1-CH Current Steering 12-bit 28-Pin SBCDIP Tube | SBCDIP-28 | 5,612 | |
| 5962-88659013A | The AD667SE/883B offers reliable 8-bit DAC performance | SB-CDIP-28 | 5,621 |
Key Featrues
High Stability Buried Zener Reference: The AD667 includes a high stability buried Zener voltage reference, ensuring consistent and accurate voltage output. This feature enhances the DAC's precision, making it suitable for applications requiring high reliability and minimal drift over temperature variations.
Double-Buffered Input Latch: The double-buffered input latch allows for simultaneous updates of multiple DACs, reducing timing errors and improving synchronization in multi-channel systems. This feature is particularly beneficial in complex control systems and data acquisition applications.
Monotonicity Guaranteed Over Temperature: The AD667 guarantees monotonicity across its operating temperature range, ensuring that the output always increases with increasing input code. This feature is critical for applications like waveform generation and precision control systems where consistent performance is essential.
Laser-Trimmed Thin-Film Resistor Network: The laser-trimmed thin-film resistor network provides high accuracy and fast settling times, enabling the DAC to achieve precise output levels quickly. This feature is ideal for high-speed signal processing and real-time control applications.
Single Chip Construction: The AD667 integrates all necessary components, including the DAC, reference, and output amplifier, on a single chip. This compact design reduces external component count, simplifies PCB layout, and improves system reliability, making it suitable for space-constrained and cost-sensitive applications.
Double-Buffered Input Latch: The double-buffered input latch allows for simultaneous updates of multiple DACs, reducing timing errors and improving synchronization in multi-channel systems. This feature is particularly beneficial in complex control systems and data acquisition applications.
Monotonicity Guaranteed Over Temperature: The AD667 guarantees monotonicity across its operating temperature range, ensuring that the output always increases with increasing input code. This feature is critical for applications like waveform generation and precision control systems where consistent performance is essential.
Laser-Trimmed Thin-Film Resistor Network: The laser-trimmed thin-film resistor network provides high accuracy and fast settling times, enabling the DAC to achieve precise output levels quickly. This feature is ideal for high-speed signal processing and real-time control applications.
Single Chip Construction: The AD667 integrates all necessary components, including the DAC, reference, and output amplifier, on a single chip. This compact design reduces external component count, simplifies PCB layout, and improves system reliability, making it suitable for space-constrained and cost-sensitive applications.
Applications
Precision Instrumentation Systems: The AD667JNZ is well-suited for precision instrumentation systems, such as data acquisition and control systems, where high-accuracy analog outputs are required. Its 12-bit resolution and fast settling time ensure precise control and measurement in applications like medical equipment, test and measurement devices, and industrial automation.
Audio Signal Processing: The AD667JNZ can be used in high-fidelity audio systems for digital-to-analog conversion, providing clean and accurate voltage outputs. Its buffered output and low integral nonlinearity make it ideal for audio signal processing in professional audio equipment, synthesizers, and digital audio workstations.
Process Control Systems: In industrial process control systems, the AD667JNZ can be employed to convert digital control signals into precise analog outputs for driving actuators, valves, or motors. Its parallel interface and internal reference voltage simplify integration into control systems, ensuring reliable and accurate operation in harsh industrial environments.
Automotive Electronics: The AD667JNZ can be utilized in automotive electronics for applications such as engine control units (ECUs) and advanced driver-assistance systems (ADAS). Its robust design and ability to operate over a wide temperature range make it suitable for converting digital signals into analog outputs for sensors, actuators, and display systems in vehicles.
Audio Signal Processing: The AD667JNZ can be used in high-fidelity audio systems for digital-to-analog conversion, providing clean and accurate voltage outputs. Its buffered output and low integral nonlinearity make it ideal for audio signal processing in professional audio equipment, synthesizers, and digital audio workstations.
Process Control Systems: In industrial process control systems, the AD667JNZ can be employed to convert digital control signals into precise analog outputs for driving actuators, valves, or motors. Its parallel interface and internal reference voltage simplify integration into control systems, ensuring reliable and accurate operation in harsh industrial environments.
Automotive Electronics: The AD667JNZ can be utilized in automotive electronics for applications such as engine control units (ECUs) and advanced driver-assistance systems (ADAS). Its robust design and ability to operate over a wide temperature range make it suitable for converting digital signals into analog outputs for sensors, actuators, and display systems in vehicles.