Renewable Energy Benefits from Biomass for a College Campus

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Renewable Energy Benefits from Biomass for a College Campus The University of Minnesota Morris as a case study. Joel Tallaksen, Biomass Scientist Morris, MN Heating The Midwest Conference Eau Claire, WI April 26-27, 2012 Joel Tallaksen 2011

Joel Tallaksen 2011

Typical College Heating Needs Often central heating plant provides: Steam for heating building space (radiators) Hot water (via heat exchangers) Capable of rapid changes in load Dependable in northern climates Low cost and minimum labor for operation

Benefits of Using Biomass Heat Potential to reduce costs Environmental aspects Good stewardship Greenhouse gas emissions Fossil carbon emissions Marketability (potential students do care) Use of local products Community development Local employment

University of Minnesota, Morris 1900 Students 900 on campus 1 Million Sq. Ft. Roughly 25 buildings Natural Gas Heat $900,000 /yr Rural Campus

University of Minnesota, Morris Biomass facility part of larger project Wind (2 Turbines) Solar (PV and Thermal) Conservation measures Goal: Net-energy neutral

Biomass Project Factors that led to considering the project High heating costs Local ag resource (corn stalks & prairie grass) Environmental concerns Research and outreach potential Project discussions began in 2004 Last planning details arranged in 2007 Facility built in 2008 Began operation in 2011

Construction picture

Morris Gasification Facility Built with the goal of using local biomass Primarily for steam heat (and hot water) 2010 added absorption chiller for chilled water 2010 added 320 kw steam turbine Gasification Fuel flexibility Fuels with high silica and/or other minerals

Gasfier

Gasification vs. Combustion Combustion is a commonly used technology Works well with clean fuel Used extensively in several industries Least expensive biomass-to-heat technology Gasification is a specialized process More expensive More complex Used for specialized applications Produces a gas as the first product Difficult fuels (Such as AGRICULTURAL BIOMASS)

Cut away view

Results: Facility and Equipment Manufacturer was overly optimistic in the specifications and performance Biomass jammed easily in infeed equipment Not able to use low-density biomass Chemical reactions happened too fast Could not feed material in fast enough Densified material also had issues Chemical reactions didn t penetrate densified material High alkaline ag residues slagged in the gasifier

Results: Operations Have begun regular operations Supplied a significant portion of winter s heating System has been used for summer cooling load 600 Ton absorption chilling unit Corn Cobs (winter fuel of choice) Wood (summer fuel of choice) Still mechanical/equipment issues Working on modifications to improve operations Hope to improve efficiency and reduce downtime

Results: Economics Construction costs higher than natural gas or wood combustion systems. Facility has unique research equipment University building code increased cost Facility maintenance is more expensive. Hard to predict in the long term

Results: Economics II Biomass costs currently similar to NG Current contract is for corn cobs at $85/ton At 14 MMbtu/ton equal to $6.00 MMBtu Natural gas delivered is around $4-5/MMBtu Local biomass contract Contracted for 6,000 tons Approximately $550,000 dollars spent locally Local employment 2-3 full time equivalents employed by suppliers

Wind turbine pic

Results: Research and Outreach Initial Research Multiple biomass types Several processing methods Work on refining gasification conditions Several agricultural projects Outreach and Education Tours: policy makers, industry, schools Short courses/capstone classes Classes

Overall Results to Date Technology risk in gasification Not yet ready for low density ag biomass More chance of mechanical issues Hard to compete with cheap natural gas Added labor and logistics adds expense to biomass Long term outlook is good Mechanical issues are being addressed Natural gas and heating oil prices will likely increase

When Biomass Makes Sense District Heating (one central steam plant) Near a biomass resource Campus location that is tolerant of biomass transport and logistics Facility staff willing to learn about biomass logistics and accept added maintenance

Acknowledgements Funding and Collaborations Many, many organizations have provided funding or collaborated with us for biomass energy research and education projects in Morris. State, federal, and private industry grants have all been used. People Mike Reese, WCROC Lowell Rasmussen, UMM