Turning city waste into clean power for America's data centers
SMSM Global Services designs pre-engineered, plug-and-play waste-to-energy steam turbine modules — deployable in months, not years.
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Why waste-to-power — and why now
America is building data centers faster than its grid can power them. U.S. data-center electricity demand has already tripled in a decade and is projected to reach 325–580 TWh by 2028 — as much as ~12% of the nation's electricity — driven by AI. Today more than 40% of that power comes from natural gas, tying critical digital infrastructure to a fuel that is both carbon-emitting and price-volatile.
At the same time, American cities generate roughly 292 million tons of municipal waste every year and pay billions to bury it, while landfills remain the third-largest source of U.S. methane emissions. The real bottleneck is no longer demand for compute — it is speed-to-power: getting reliable, dispatchable generation built next to the load, quickly. Conventional power plants take years. That gap is where this project sits.
Our solution: SMSM Global Services designs standardized, pre-engineered waste-to-energy steam turbine modules that convert municipal waste into on-site electricity. Waste is burned to raise high-pressure steam; the steam drives a turbine and generator; and the water recirculates in a closed loop — turning a disposal liability into 24/7 baseload power. Because the modules are standardized and plug-and-play, they deploy in months rather than years, sit beside data-center campuses, and can run in combined-heat-and-power mode for up to ~80% total efficiency. They can even island as resilient backup for hospitals, communications, and other critical infrastructure.
The result is a circular, distinctly American solution: waste cities already pay to dispose of becomes clean, dispatchable power for the digital economy — diverting garbage from landfills, cutting methane, easing grid strain, and lowering the carbon intensity of AI infrastructure.
Demand is outrunning the grid
AI-driven data-center demand is surging against a fossil-heavy grid, while cities pay to bury ~292M tons of waste a year.
Speed-to-power is the bottleneck
The constraint isn't compute — it's building reliable, dispatchable generation beside the load in months, not years.
Plug-and-play waste-to-power
Standardized modular steam-turbine units turn municipal waste into clean, on-site baseload power for data centers.
Waste becomes heat, heat becomes steam, steam becomes electricity — while the water runs on a closed loop the whole time.
Waste Incineration
Municipal waste is fed from a sealed bunker and burned at ~1,000°C, cutting its volume ~90% and releasing intense heat. Bottom ash is recovered for metals and aggregate.
Heat Recovery & Steam
Hot flue gas passes through a heat-recovery boiler (economizer → drum → superheater), boiling water into high-pressure superheated steam.
Power Generation
Steam spins the turbine, the generator makes electricity, and a transformer delivers clean power on-site to the data center or grid.
A repeatable, standardized path from engineering to a running plant.
Standardize the blueprint
Pre-engineer the turbine module once — layouts, heat-recovery integration, piping and stress — so every deployment starts from a validated design.
Find the right site
Screen and rank locations with geospatial data — proximity to waste, grid, water, and data-center demand.
Deploy the module
Hand developers and EPC contractors bankable engineering packages that cut lead time and construction risk.
Operate & support
Commissioning oversight and reliability-centered design deliver high availability from day one.
Where the project stands today
A standardized, three-phase program taking the model from validated engineering blueprints to a first reference deployment.
System model & validation
Interactive nine-stage process model, technical walkthrough, and engineering business plan completed.
Phase 1 — Blueprint standardization
Standardized turbine-module blueprints (AutoCAD/PDMS) with CAESAR II stress validation.
Phase 2 — Site suitability
National ArcGIS siting framework using USGS geological and landfill data near data-center clusters.
Phase 3 — Deployment
Bankable engineering packages to DOE and developers; first pilot / reference deployment.
An engineering foundation, already underway
Phase 1 is backed by a preliminary engineering package for the standardized SMSM-WTP-20 module (~20 MWe) — the design-definition work that precedes detailed CAD and analysis. It demonstrates real technical depth behind the concept.
Figures are representative of typical municipal waste-to-energy plants (U.S. EPA, DOE); actual output depends on site scale and configuration.
Built by an engineer who has done this work
The endeavor is led by a mechanical engineer with 14+ years commissioning turbines and engineering high-pressure piping systems on world-class energy projects.
Mechanical Engineer · Gas Turbine Specialist
Katy, Texas
Oluwaseun Ajayi is a mechanical engineer with over 14 years of experience across gas-turbine systems, rotating-equipment reliability, and high-pressure piping engineering on critical energy and industrial facilities. He currently supports the installation, commissioning, and maintenance of Solar Turbines (Caterpillar) gas-turbine packages, and has delivered piping design and pipe-stress analysis on major oil & gas, LNG, and power-generation programs worldwide.
This is precisely the skill set the endeavor requires — spanning thermodynamic and mechanical design, pipe-stress analysis, 3D plant modeling, and field commissioning — enabling him to both develop the standardized turbine-module blueprints and carry them through to real-world deployment.
- Commissioning Solar Turbines (Caterpillar) gas-turbine packages for power-generation and industrial energy facilities.
- Pipe-stress design (CAESAR II) and rotating-equipment reliability on high-pressure and cryogenic systems — one of only 36 engineers selected nationwide to represent Nigeria on a flagship engineering program.
- Detailed engineering and 3D plant modeling (AVEVA PDMS) across major oil, gas, and power facilities, from concept design through commissioning.
- Led engineering procedure and drawing standardization that cut review cycles ~25% and averted $80,000+ in rework.
Let's build the power layer for America's digital infrastructure
We're engaging energy developers, data-center operators, EPC contractors, and public agencies to deploy the first modules — and welcoming investors who want in early.
Energy developers & IPPs
License standardized module blueprints to accelerate speed-to-power for data-center offtake.
Data-center operators
Co-develop on-site, dispatchable generation and combined-heat-and-power cooling beside your campus.
Public agencies
Align siting and design with federal AI-infrastructure and clean-energy programs.
Investors
Back an asset-light engineering venture positioned at the center of the AI-power bottleneck.
Start a conversation
For partnership, investment, or technical collaboration, reach out and we'll share the technical brief and business plan.
Request the technical brief