
Using proven circuits and off-the-shelf components from Analog Devices, designers can quickly implement advanced vibration and sound sensing systems.

How to cost-effectively and quickly implement efficient, high-speed building automation networks using 10BASE-T1L.

Accurately and reliably create digital control systems with matching precision ADCs and DACs.

Accurately and reliably capture underwater topologies with LiDAR equipment that uses a green laser emitter and an AD8652 amplifier.

The performance of PSAPs can be improved by mitigating the comb effect using anti-noise signals generated by advanced codecs such as the MAX98050.

Using in-line current sensing, designers can implement a stable, reliable, and efficient AC motor drive system for Industry 4.0.
For precision analog design, it’s critical to factor in power early on in order to meet the overall design objectives.
LTspice is useful in determining photo sensing noise performance in circuit designs for precision instruments.

Take a modular approach to designing the analog front-end of an acoustic focusing flow cytometer to save time and space.
Implementing the Digital Twin culture, which includes real-world and virtual product-life-cycle management software, reduces design cycle time, testing, and improves yields.
How to use a Bode plot to ensure circuit stability by quickly measuring single-pole and single-zero gain and phase response with this straight-edge tool.
Use a translation loop module to design a low-jitter, high-frequency clock solution without the headaches of spurious noise and numerous layout spins.
Accurately and reliably capture wearable health and fitness vital signs with a highly integrated multiple channel optical signal chain.
Overcome high-speed analog data acquisition design headaches with a fully differential amplifier and ADC module.
Designers can implement a high-resolution, high-speed SAR ADC with low-pass analog and averaging digital filters.
Automotive engineers can get a precise and reliable LiDAR system up and running with the right transimpedance amplifier.
Capture a three-phase induction AC motor’s torque accurately and reliably with an isolation modulator and a mixed-signal control processor.
Bootstrap a monolithic op amp with two transistors to double the output voltage range and create a low-cost, high voltage amplifier with minimal board space.
Design a reliable 16-bit medical imaging amplifier and SAR ADC combination to meet SNR, THD, and SINAD requirements.
Design an ultra-high-precision TIA front-end to accurately and reliably capture small photodetector currents in spectrophotometric instrumentation.