Curved architectural surfaces are not only visual design elements; they also directly affect how sound is reflected. Concave surfaces tend to focus sound, while convex surfaces help diffuse sound. From church domes to columns in concert halls, architectural geometry can have a significant influence on the sound field.
Soundskrit’s Sound Tracking Demo Kit (Strider) uses four SKR0610 Directional MEMS Microphones together with DOA (Direction of Arrival) and AI VAD algorithms to determine where sound is coming from in real time and display the detected sound source through a visual interface. The system can simultaneously localize up to 3 sound sources, making it suitable for applications such as Voice Tracking, Beam Steering, smart cameras, and other acoustic sensing systems.
Sound contains not only level information, but also directional information. Soundskrit uses W, X, Y, and Z acoustic signals to capture directional information in three-dimensional space, enabling DOA (Direction of Arrival) estimation and Beam Steering. This allows the system to determine where a sound is coming from and steer the pickup direction toward the target sound source.
Most MEMS microphones are designed for omnidirectional pickup. Soundskrit uses Two Sound Ports together with a redesigned MEMS transducer to provide directional pickup from a single compact microphone, while maintaining high sensitivity and reducing sound coming from certain directions.
What do the 5 W, 10 W, or 20 W ratings on a speaker really mean? Rated power represents the power a speaker can handle continuously under specified test conditions, while maximum power indicates its ability to withstand short-term signal peaks. Understanding the difference helps us read speaker specifications correctly.
In acoustic testing, and pink noise are both commonly used as test signals. However, when we look at their spectral distribution, we can see that their energy is distributed in different ways.