News & Insights

Driven by strong community feedback and growing adoption, Okika is reducing prices across its FPAA product lineup. These changes lower the barrier to experimentation and prototyping while reinforcing our long-term commitment to supporting students, researchers, and engineering teams.

Discover how FPAA technology provides greater flexibility, faster prototyping, and longer system life compared to traditional Analog Front-End ICs, and learn when a reconfigurable approach is the smarter choice.

Field Programmable Analog Arrays bring adaptive, low-power analog processing to modern sonar systems. This article explores how FPAAs improve multi-spectral performance, reduce latency, and simplify analog front ends for underwater robotics, inspection devices, and advanced sensing applications.

Software defined systems reshaped digital design, but analog has remained fixed. SoC FPAAs change this by making filters, amplifiers, and sensor front ends fully programmable. They reveal new hidden knobs for adaptive payloads, reconfigurable instrumentation, and low power mixed signal computing. This is the next wave of software defined engineering.

FPAAs improve power efficiency by replacing many always-on analog components with a single device that activates only the circuits a system needs. By reducing idle draw, limiting unnecessary conversions, and streamlining signal paths, FPAAs help engineers build lighter, longer-lasting, and more efficient systems for aerospace, robotics, medical devices, and industrial IoT.

Field Programmable Analog Arrays (FPAAs) let engineers reconfigure analog circuits without full board redesigns, reducing costs and accelerating prototyping. They enable systems to adapt to changing requirements across aerospace, robotics, medical devices, and IoT. This flexibility future-proofs hardware, extends lifetimes, and maintains performance under evolving conditions.

Okika Devices today announced the launch of its new Chameleon™ product family: a tiny yet powerful analog module that adapts to a wide range of analog design needs.

Field Programmable Analog Arrays (FPAAs) bring FPGA-like flexibility to the analog domain, enabling engineers to dynamically configure amplifiers, filters, and routing directly in hardware. Unlike FPGAs, which handle digital logic, FPAAs operate on analog signals to reduce latency, lower power use, and simplify design. Paired with FPGAs, they create hybrid embedded systems that combine adaptive analog processing with digital control for more efficient, reconfigurable, and compact solutions.