Goals and specifications
Translate product intent into a shared set of goals, requirements and technical specifications.
Capabilities
Product definition, acoustic systems, transducers, electronics, RF, power, mechanical engineering, DSP, prototyping and verification — connected around one product intent.
One connected capability system
Choose a capability area to see the specific simulations, development loops and evidence behind the work.
Capability detail
Translate product intent into a shared set of goals, requirements and technical specifications.
Structure the work, identify decision owners and keep cross-domain interfaces visible.
Build the schedule, assess and mitigate risk, form the team and establish information sharing.
Identify where structured experiments can replace assumption with measurable evidence.
Compare industrial-design concepts through acoustic simulation, objective response including directivity, and subjective evaluation.
Model wave radiation, enclosures, ports, passive radiators, system THD, excursion and nonlinear behavior.
Develop and optimize crossovers, filters and DSP tuning as part of the complete acoustic architecture.
Use full- and half-space anechoic measurement plus nonlinear and thermal characterization to close the design loop.
Micro, headphone, tactile, compact, full-range, coaxial, hi-fi, low-profile, compression and professional woofer formats.
Electromagnetic saturation, motor inductance, suspension optimization and demagnetization-temperature analysis.
Waveguide, structural stress and tinsel-lead simulation connect component decisions to real operating conditions.
Balance the driver, enclosure, amplifier and DSP so component capability translates into system performance.
Discrete, Class AB, Class D, digital Class D and Class G amplification with driver, DSP and amplifier integration.
Mains supply topologies, charging, battery management, protection and multi-cell lithium architectures.
Requirements and constraints, proposals, simulation, fabrication, measurement, tuning, verification and validation.
Schematic and PCB design, circuit simulation, version-controlled libraries and data analysis support repeatable decisions.
Thermal and airflow analysis, vibration, deformation and stress, drop and shock, plus optical illumination studies.
Injection-molding simulation, deformation analysis and CT-based failure analysis support design learning.
Wood, die-cast or extruded aluminium, injection or extruded plastic and waterproof cabinet architectures.
Transfer processes, metallic paint, anodizing, fabric wrapping, stitching, etching, stamping and extrusion.
Configure and tune the signal path around the acoustic system, product constraints and intended listening experience.
Develop flexible processing chains and multi-channel configurations for consumer and professional applications.
Integrate voice-processing functions where the product architecture and user context require them.
Integrate app software alongside DSP, signal processing and voice processing.
Set goals and specifications, assess risk and identify the design-of-experiments needed to answer critical questions.
Use PoC and PoA builds with status tracking, design and simulation.
Connect verification and validation to structured data collection and performance analysis.
Report prototype performance, retain technical documentation, conclude and capture lessons learned.
Holistic design
The strongest answer rarely comes from maximizing one component. It comes from understanding how performance, size, power, cost, robustness and production interact.
See how we work