Waste-stream characterization, technology screening, environmental-permitting strategy, and owner's-representative services for municipal waste-to-energy projects — grounded in a Danish energy-engineering career and years spent selling waste-to-energy power plants worldwide for Babcock & Wilcox.
A waste-to-energy feasibility study starts from a different question than a biomass study does: not "will the fuel be there," but what exactly is in the waste stream committed to the plant, and how much of it will actually combust the way the design assumes. Municipal solid waste is not a uniform fuel — its composition and heating value shift with the season, the local recycling and organics-diversion rate, and the mix of residential versus commercial collection routes feeding the facility. A feasibility study has to characterize that stream directly, not borrow an average from a different jurisdiction's waste audit, because a plant sized against the wrong heating-value assumption either under-performs its rated throughput or runs hotter than its combustion system was designed for.
The study also has to price the waste-supply contract itself — put-or-pay tonnage commitments, tipping-fee escalation, and what happens to the economics if a hauler or municipality diverts more of the stream to recycling or composting than the plant assumed — alongside the two cost centers that make or break a waste-to-energy project's operating economics: ash characterization and disposal (is the bottom ash and fly ash handled as non-hazardous, or does a metals or dioxin test result push it toward more expensive hazardous-waste disposal), and the flue-gas treatment train needed to meet air-permit limits on the waste stream actually being burned. Skipping any one of these doesn't make the project cheaper; it moves the discovery of the problem to commissioning, where it is far more expensive to fix.
Municipal waste-to-energy projects generally screen toward one of three combustion approaches, and the right one follows the waste-stream characterization, not the other way around. Mass-burn — feeding unprocessed municipal solid waste directly onto a moving grate — is the most widely proven approach and the most tolerant of a heterogeneous, unsorted waste stream, but it requires a combustion and flue-gas-treatment design sized for whatever actually arrives at the tipping floor. Refuse-derived fuel (RDF) processes the waste first — shredding, screening, and removing metals and non-combustibles — to produce a more consistent, higher-heating-value fuel, at the cost of a front-end processing line that adds capital cost, maintenance burden, and its own residue-disposal stream.
Gasification and pyrolysis technologies convert waste into a synthesis gas or pyrolysis oil rather than combusting it directly, and while the technology has attracted real developer interest, a feasibility screening has to be honest about which gasification vendors have a genuine commercial operating track record on mixed municipal waste versus a demonstration-scale or single-reference installation — the gap between a vendor's pilot-plant performance data and its guaranteed commercial performance is exactly where an independent, engineering-trained review earns its fee. None of the three technologies is categorically "the right one"; the right one is whichever matches the waste stream actually characterized, the site's footprint and environmental constraints, and the sponsor's appetite for a less-proven technology in exchange for a different cost or emissions profile.
A municipality or solid-waste authority evaluating a waste-to-energy facility is usually not staffed to read an EPC contractor's bid, or an environmental permit application, the way the EPC contractor and its environmental consultant read it — an owner's-representative engagement puts that same reading ability on the owner's side of the table. During permitting, that means tracking the air-permit application against the actual waste stream and combustion technology (not a generic emissions-factor placeholder), flagging where an ash-characterization result changes the disposal pathway assumed in the project's financial model, and keeping the environmental-review timeline honest against the project schedule and any public-hearing requirements a municipal project carries.
During EPC contractor selection, the work is comparing bids for what's actually included — combustion-system and flue-gas-treatment performance guarantees tied to the waste stream actually characterized (not a generic MSW spec), ash-handling and residue-disposal scope, availability and capacity-factor guarantees, and the commissioning and performance-test protocol that determines when the plant is deemed to have met contract — against what's quietly excluded or assumed. On a municipal project, that review often runs alongside a public procurement process, where the owner's representative's job is also making sure the bid comparison the elected board sees is apples-to-apples across competing EPC proposals.
Randolph Scott Bell holds a B.Sc. in Engineering from Aalborg University, Denmark, and built a Danish energy career across waste-to-energy and biomass boiler plants, heat-pump and ventilation product development, and insulation equipment before selling waste-to-energy power plants worldwide for Babcock & Wilcox (Poland) — a role built entirely on understanding what a plant sponsor and, often, a municipal buyer actually needs to evaluate before committing capital and public funds to a waste-to-energy facility.
That background now sits alongside two credentials earned since returning to Florida: RESNET Certified HERS Rater (RTIN 4516301) and LEED Accredited Professional, plus an active Florida Certified General Contractor license (CGC1528750). The combination is what this offer rests on: energy-systems engineering judgment from a Danish industrial career spent specifically on waste-to-energy plants, a licensed contractor's eye for permitting and construction-side risk, and no claim beyond what that combination actually supports.
Every project starts from a different point — some sponsors need a waste-stream characterization and feasibility study from a standing start, others already have a waste-supply agreement in hand and need technology-screening guidance, and others are past feasibility entirely and need an owner's representative through permitting and EPC bidding. Call to discuss where your project stands and what level of engagement it actually needs; there's no fixed-price package here, because a feasibility study and a multi-year owner's-representative engagement through commissioning are not the same scope of work.
Waste-stream characterization, technology screening, permitting strategy, or owner's-representative work through EPC selection — call and describe where the project stands.
It characterizes the waste stream committed to the plant — composition, heating value, and seasonal variability — prices the waste-supply contract structure (put-or-pay tonnage and tipping-fee escalation), screens ash characterization and disposal pathway, and evaluates the flue-gas treatment train needed to meet air-permit limits for that specific waste stream.
Mass-burn combusts unprocessed municipal solid waste directly on a moving grate and is the most widely proven approach for a heterogeneous waste stream. Refuse-derived fuel (RDF) processes the waste first — shredding and screening — to produce a more consistent, higher-heating-value fuel, at the cost of a front-end processing line. Gasification and pyrolysis convert waste into a synthesis gas or oil rather than combusting it directly, and screening has to weigh a vendor's actual commercial operating history against pilot-scale performance claims.
Tracks the air-permit application against the actual waste stream and combustion technology, flags where an ash-characterization result changes the assumed disposal pathway, and keeps the environmental-review timeline honest against the project schedule and any public-hearing requirements a municipal project carries.
Compares EPC bids for what's actually included — combustion and flue-gas-treatment performance guarantees tied to the actual waste stream, ash-handling and residue-disposal scope, availability and capacity-factor guarantees, and the commissioning and performance-test protocol — against what's quietly excluded or assumed, and on municipal projects helps keep a public procurement comparison apples-to-apples.
No. This is consulting, owner's-representative, feasibility, and EPC-advisory work, grounded in a Danish energy-engineering career and years spent selling waste-to-energy power plants worldwide for Babcock & Wilcox (Poland). It is not a construction or EPC-execution offer.
A B.Sc. in Engineering from Aalborg University, Denmark, followed by a Danish energy career across waste-to-energy and biomass boiler plants, heat-pump and ventilation product development, and insulation equipment, before selling waste-to-energy power plants worldwide for Babcock & Wilcox (Poland).
RESNET Certified HERS Rater (RTIN 4516301) and LEED Accredited Professional status reflect a working discipline of measuring energy performance rather than guessing at it — the same discipline a waste-stream characterization and technology screening applies at plant scale, now combined with an active Florida Certified General Contractor license (CGC1528750) for the permitting and construction-side judgment an owner's representative needs.
Yes. A municipality or solid-waste authority weighing a waste-to-energy facility against its municipal solid waste stream needs the same independent, engineering-trained feasibility read as a private developer, often ahead of a bond issue or procurement process where elected boards and staff want a second opinion before committing public funds.
A biomass study starts from securing a consistent agricultural or forestry fuel supply. A waste-to-energy study starts from characterizing a municipal solid waste stream that is inherently heterogeneous and shifts with recycling rates and collection routes, and carries its own waste-supply-contract, ash-disposal, and flue-gas-treatment considerations that a biomass fuel-supply assessment does not.
Feasibility and owner's-representative consulting is available for projects in Florida and elsewhere in the United States. The Florida Certified General Contractor license (CGC1528750) is a state certification, and the underlying feasibility, waste-characterization, and technology-screening expertise is engineering judgment that isn't tied to a single jurisdiction.
It depends entirely on scope — a waste-stream characterization, a technology-screening review, and a multi-year owner's-representative engagement through permitting and commissioning are different commitments. Call (561) 779-3213 to discuss the project and get a straight read on what it would take.