Project Development Overview

Local Economic Benefits

The supply of a municipal waste to energy plant for most communities, on a turnkey basis will provide many benefits. The plant will operate independently and, by recovering the latent energy contained within the community’s waste products, will satisfy some or potentially in the future, all of the energy demands for the community. The plant’s energy versatility allows the operators to use any local energy resources and thereby, reduce the dependency on more expensive sources of fuel. The plant’s size and technology ensures that all environmental considerations are met while dramatically reducing, or eliminating altogether, the need for traditional landfills

The Dynamis Waste to Energy plant will generate and provide obvious economic benefits, including:

The waste to energy plant will produce permanent and temporary employment during the initial construction and operation periods.
Provide an economic solution to the ever-increasing municipal, industrial and, especially medical waste discharge needs, jointly with the production of substantial electric power, necessary for the city and the region development, all at a rate comparable to the present real cost of energy production
Provide a nucleus of economic activity around a new power source, which can be a powerful tool for economic development.
Reduce the local or national dependency on more expensive and/or foreign sources of energy, and, simultaneously, increase the value-added potential of the domestic or regional agricultural, food processing and other industries by using agricultural and urban waste.
Minimizing or eliminating, waste disposal problems and costs by using the residual ash for production of cement products. A small concrete plant could be added to the project and used to produce cement blocks. Other recapture and sales of recyclables is possible as well.
Elimination of long term ground water contamination from traditional landfill use
Can be used in connections with recycling initiatives or, alternatively the units can use plastic, rubber, paper and wood waste products to maximize energy recovery.

Phase 1 - Feasibility/Achievability

Project Screening
MSW Availability
Site Availability with ingress/egress study
PPA/Power Rates
Transmission Availability
Water Availability
Permitting Assessment
MOU/LOI Development
- MSW Supply
- Site Access
- Other
- Assess Public Sentiment
- Labor Strategy
- Develop Fatal Flaw Checklist
- Design:
- Process Design
- Plant Sizing
- Preliminary Site Layout

Phase 2 – Project Development

Preliminary Engineering and Design
Finalize Site Layout
Finalize Plant Configuration
Complete Plant Design
Finalize Site Design
Prepare and Secure Permits
Air Quality
Water Usage
Local Building
Negotiate and Execute Plant Contracts
MSW Supply
Power Purchase
EPC with Wrap
Water Supply
Project Company Formation
Secure Construction and Permanent Financing
Debt
Equity

Phase 3 – Project Construction

Construct Facility
Issue Purchase Orders
Issue Sub Contracts
Labor Management
Monitor/Maintain Schedule
Public Relations Management
Construction Permit Compliance
Test and Commission Facility
Air Permit Compliance
Output
Grid Connection
Water Usage
Initial Operations
Establish Operations Team
Set Up Procedures
Develop Annual Budget
Operator Training
Maintenance
Set Up Procedures
Set Up Schedule
Convert Construction loan to Permanent Loan if applicable

Phase 4 – Plant Operations

Operate Facility
Manage Plant Staff
Maintain Annual Budget
- Build Reserves
- Manage Plant Expenditures
- Procure Supplies
- Establish Subcontracts
- Coordinate MSW Delivery
- Collect Tipping Fees
- Manage Off Take Agreements
  - Power Purchase
  - Recyclable Sales
  - Ash Sales
  - Purchase and Maintain Insurance
  - Financial Oversight
  - Asset and Risk Management
  - Assure Continuing Permit Compliance
  - Public Relations Management
  - Maintain Equipment