Translating fundamental research into real-world solutions for noise pollution, energy harvesting, and sustainable infrastructure.
A patented, dual-function technology that simultaneously mitigates low-frequency noise pollution and harvests ambient acoustic energy — with no moving parts, maintenance-free operation, and environmentally benign working fluids.
Spiral-geometry porous stacks fabricated via additive manufacturing, enabling broadband absorption across 300–800 Hz with precise frequency tunability.
Resonator cavities integrated with thermoacoustic stack elements for simultaneous noise reduction and acoustic-to-thermal energy transduction.
Modular wedge-shaped geometries optimized for scalable deployment in infrastructure, achieving 70% device size reduction vs. conventional approaches.
Key technical achievements validated through simulation and laboratory testing at Technology Readiness Level 3 (TRL-3).
TAMS technology is designed for scalable deployment across aerospace, transportation, urban infrastructure, and industrial sectors.
FAA-monitored airports (JFK, Phoenix Sky Harbor, DFW) and Boeing 737 MAX nacelle liner retrofits for next-generation propulsion systems.
I-35 highway corridor noise barriers, 50+ NYC MTA subway stations targeting 35% noise reduction, and urban transit infrastructure.
Integration into GSA high-performance building standards, leveraging $250M federal allocation for facility conversions through 2031.
Manufacturing facility noise control and self-powered IoT sensor networks for structural health monitoring, cutting battery costs by $3.2M/year at 100+ wind farms.
Battery-free sensor networks for remote military installations, disaster resilience, and critical infrastructure protection aligned with DHS priorities.
Addressing noise-induced health risks for 100M+ Americans exposed to harmful levels (>65 dB), targeting 22% noise complaint reduction in deployment zones.
TAMS research directly supports key U.S. federal priorities across environmental, energy, manufacturing, and public health domains.
Noise Control Act (42 U.S.C. §4901) — reducing environmental noise exposure for communities near airports and highways.
2030 Noise Reduction Goals — developing compliant nacelle liners and airport noise barriers for next-gen aviation.
Advanced Materials & Energy Storage Roadmaps — acoustic energy harvesting for building technologies and distributed sensing.
America's Supply Chains — domestically manufactured using 3D-printed polymers, reducing import dependence.
Infrastructure Investment & Jobs Act — smart infrastructure integration for highways, transit, and federal buildings.
Advanced Manufacturing Initiatives — additive manufacturing processes for scalable production at $3.50/sq.ft.
Noise pollution is an underrecognized public health threat. TAMS technology offers a scalable engineering solution with measurable health outcomes.
Translating patented TAMS technology into commercial products through the Quiet Power startup, validated by industry judges and accelerator programs.
PCT/US24/58048 — Thermoacoustic Meta-Structure patent filed through Oklahoma State University Technology Development Center.
Completed technology commercialization boot camp (2022), developing go-to-market strategy and business model for TAMS deployment.
Quiet Power business plan selected as finalist (2024), judged by U.S. investors and industry professionals at OSU's Riata Center for Innovation.
$230,000 proposal submitted for 12-month TAMS prototype development, field testing, and multi-sector integration.
Global noise control systems market growth projected by 2033, representing massive commercial opportunity for TAMS technology.
China has invested $220M in public R&D for acoustic metamaterials (NSF Global R&D Report), making domestic TAMS leadership strategically critical.
NewFoS Science & Technology Center brings together 8 universities and industry partners (Intel, QUALCOMM) with $30M NSF funding to advance sound research.
Open to research partnerships, industry collaborations, licensing, and investment discussions.