Sustainable Development Goals
PROJECT INFORMATION AT A GLANCE:
Project Status:
Operating commercial reference
Organizations Involved:
Commonwealth of Pennsylvania, Lancaster County Solid Waste Management Authority (LCSWMA), GPU Energy, Martin, Covanta
Services / Equipment:
Feasibility Studies, Due Diligence Services, CSR Education Plan
Lancaster demonstrates the value of treating waste as a community resource: less landfill volume, electricity for the grid, recovered metals and steam for a neighbouring agricultural processor. Each connection makes the wider waste-management system more useful.
The Lancaster Waste-to-Energy Facility is part of LCSWMA’s integrated solid waste management system. Recycling, household hazardous-waste collection, transfer operations, thermal treatment and landfill management work together to direct materials to appropriate destinations and preserve disposal capacity.
Klean presents Lancaster as a commercial reference for evaluating that whole system. The central lesson is to connect treatment technology with the community’s land constraints, logistics, energy customers and remaining disposal requirements.
Reflecting on LCSWMA’s operating partnership with Covanta, Jim Warner described the shared purpose:
“Together, we are truly transforming waste into a resource for this community.”
— Jim Warner, Chief Executive Officer, LCSWMA
The Challenge
A growing community needs dependable capacity for the waste that remains after recycling. Sending that material directly to landfill consumes a finite asset while leaving much of its energy and residual metal content unused.
Lancaster’s challenge extended beyond choosing a treatment plant. The county needed an organized route from collection through final management, with suitable handling for household hazardous materials, efficient movement of waste and a clear role for the landfill.
For municipalities and infrastructure investors, these are connected commercial decisions. Transfer logistics affect transport costs. Waste composition affects thermal performance. Energy outlets influence revenue. Residue management determines how much landfill capacity is still required. Community understanding helps the collection and recycling programmes function as intended.
The Solution
Give each part of the system a defined job
LCSWMA combines county-wide recycling and household hazardous-waste services with transfer facilities, waste-to-energy treatment and the Frey Farm Landfill. Private haulers deliver material into the system, where consolidation and routing support its further processing.
The Lancaster facility accepts up to 1,200 U.S. short tons of waste per day. Its three combustion units produce steam for a turbine generator. Klean’s historical reference identifies 35.7 MW of electrical generation capacity at the 56-acre site; actual electricity exports depend on internal consumption and how steam is allocated between power generation and industrial use.
The facility is owned by LCSWMA and operated by Reworld, formerly Covanta. That ownership and operating arrangement places the plant within a wider public-service system supported by a specialist operator.
Preserve landfill space while recovering additional materials
Thermal treatment reduces incoming waste volume by approximately 90%, according to LCSWMA. Metals are recovered from the ash for recycling, while the remaining ash is used as daily cover at the authority’s landfill, reducing the need for soil.
The landfill remains an essential part of the system, receiving appropriate non-combustible material and treatment residues. Its role becomes more targeted. Volume reduction protects capacity, while metal recovery captures material that has passed through earlier recycling opportunities.
For a community facing limited disposal space, that creates a practical investment question: how much value can be obtained by conserving existing landfill capacity while producing energy and recovered materials from the residual stream?
Connect the energy output to a neighbouring industry
The facility also supplies steam and process water to Perdue AgriBusiness’s adjacent soybean-processing plant through a utility bridge. LCSWMA describes 15–20% of the waste-to-energy facility’s steam being used in Perdue’s drying and processing operations.
The connection has a documented commercial foundation. Perdue reimbursed LCSWMA more than US$6.2 million toward the engineering and connection modifications, and a utilities agreement establishes the supply relationship. The customer’s contribution helped fund the infrastructure linking waste-derived steam with an industrial requirement.
This is a transferable development lesson. A nearby heat user can provide a productive outlet for steam, with the connection cost, supply obligations and energy pricing addressed through a defined commercial agreement. Its value depends on the customer’s demand and the effect of steam extraction on electricity generation.
Make water reuse part of the operating design
Lancaster uses treated effluent from a nearby wastewater-treatment plant as a process-water source. Further treatment at the waste-to-energy facility prepares the water for use, and wastewater generated on site is treated and recycled within the system.
The facility’s zero-discharge description refers to this wastewater arrangement. It illustrates how utility planning can connect two community services and reduce reliance on fresh-water withdrawals. Water treatment, cooling, steam production and reuse are integral parts of the plant’s design.
The Outcome
A substantial operating record with several forms of value
Klean’s reference preserves a documented cumulative milestone also reported by Covanta and LCSWMA:
| Historical operating milestone | What it demonstrates |
|---|---|
| 10 million U.S. short tons of municipal solid waste processed | Sustained use of thermal treatment within a regional waste-management system |
| 5.6 million MWh of electricity produced | Large-scale energy recovery accumulated over the operating period |
| More than 180,000 U.S. short tons of ferrous metal recovered, as reported by Klean | Additional material recycling after waste combustion |
These are cumulative reference milestones, separate from annual throughput and generation capacity. They demonstrate the contribution of an operating asset over time.
The same milestone announcement reported avoided greenhouse-gas emissions equivalent to more than 1.9 million passenger cars operating for one year. This is a reported comparison associated with the historical milestone, based on the alternative of landfilling; it is not an annual operating total or a zero-emissions claim.
An industrial connection that extends the plant’s usefulness
The Perdue integration adds a direct relationship between residual-waste treatment and agricultural processing. Electricity sales, industrial steam supply and recovered-metal outlets give different parts of the output a market, while the authority retains the public-service benefit of preserving landfill capacity.
These benefits must be assessed together with operating, maintenance, emissions-control and residue-management costs. The commercial strength comes from how the complete system serves its community and customers.
The facility has also been recognized as an OSHA Voluntary Protection Program Star worksite. Public drop-off services, educational resources and facility tours make the wider system accessible to the community it serves. Operational performance and public understanding support the same long-term infrastructure objective.
1. Treat landfill capacity as an asset worth conserving. Lancaster’s approximately 90% waste-volume reduction gives thermal treatment a strategic role in the community’s disposal system, alongside recycling and managed residual disposal.
2. Develop energy outlets with identifiable customers. The Perdue connection shows how industrial demand, customer funding and a utilities agreement can turn steam recovery into a defined commercial relationship.
3. Evaluate the whole system’s performance. Historical waste throughput, electricity generation and ferrous-metal recovery show value accumulating across several outputs. Logistics, water reuse, operating costs and residue destinations complete the investment picture.
These are selected achievements and lessons. Further technical and commercial insights are available through an engagement with Klean.
WHAT DO THESE LESSONS MEAN FOR YOUR PROJECT?
For a municipality or developer, the starting point is the residual-waste stream and the infrastructure around it. Klean can assess available volumes, composition, collection and transfer arrangements, disposal constraints, power markets and potential industrial steam users within an agreed scope. Community education can be addressed alongside technical and commercial development.
New equipment projects follow Detailed Equipment Quotation (DEQ) → Detailed Feasibility Study (DFS) → Front-End Engineering and Design (FEED). The engagement package outlines the work; the paid DEQ proposal supplies the preliminary technical and commercial basis. Advisory and existing-facility assignments are scoped to their objectives.
Discuss Your Integrated Waste Management Project >> GO.
ABOUT THE INFORMATION PRESENTED
This case study combines Klean’s historical reference information with published owner and operator records. Capacity figures, cumulative operating milestones and the industrial integration retain their respective reference bases. Detailed service scope and project-specific technical and commercial information are addressed within an agreed engagement and appropriate confidentiality arrangements.
This case connects with Goals 6, 7, 8, 9, 12, 13 and 15 through water reuse, energy recovery, industrial supply, infrastructure and improved resource management. Its central contribution is the integration of those functions around a community’s waste-management needs.
