ENGS 171 – Spring 2011

INDUSTRIAL ECOLOGY

 

Term project

 

2011 teams & topics

 

Examples of past projects

 

 

This edition of the course includes two distinct types of projects.

 

Project Type I – Industrial Ecology of a place

 

Two places: Hanover Town Hall & Thayer School of Engineering,

hereafter referred to as “the place”.  One team per place.

 

Objectives

 

1.      Development of experience in the application of industrial ecology principles and methodologies to the operations of a specific building.

2.      Application of project management and engineering skills to real-world problems.  Emphasis placed on how to make recommendations and present analyses when problem structure may be ill-defined and information incomplete.

 

Overview

 

This type of project involves making environmental performance recommendations on actual products, services, or systems in use at the place specified.  Each team of 4 students will select from a list a general area of activity in which they are to identify and analyze a product, service, or system in which it is thought that an environmentally-relevant improvement can be made.  Students will be given several contacts who are familiar with the place and who will be able to provide relevant information.

 

Listed below are the general areas of activity.

 

1.      Energy, all forms

2.      Delivery of water and treatment of liquid wastes

3.      Solid waste collection, storage, and treatment

 

Because the term project involves real-world activities, students should expect that there will be gaps in information needed on their topic, and that the criteria used to make recommendations may be ambiguous.  Teams are expected to take full account of the uncertainty of their recommendation by highlighting data gaps and the sensitivity of recommendations to assumptions.  In actual practice, analyses which highlight gaps in information, identify critical assumptions, and place bounds around a possible answer are often just as useful as analyses which are able to provide clear-cut solutions.  Consequently, teams will be evaluated on the thoroughness and creativity of their analyses and recommendations.

 


Deliverables

 

Students are expected to meet the following requirements during the course of the term project.  Written and oral communications are important skills for the successful engineer, and will be taken into account at times of project evaluation.

 

1.      Environmental performance summary for the “place” with ranking by level of impacts;

2.      Recommendations for several improvement options, with engineering analysis and cost estimates;

3.      In-class oral presentation near mid-term reporting on progress and outstanding issues;

4.      Oral presentation of project results, in presence of town/campus collaborators;

5.      Final 10-20 page written report (including text, figures, and tables).

 

Evaluation

 

Instructor will evaluate the students based on the following criteria:

 

-         (15 points) Appropriateness and application of industrial ecology methods

-         (10 points) Quality and reasonableness of recommendations

-         (5 points) Mid-term progress presentation

-         (10 points) Final presentation and written report.

 

Total of 40 points toward the 100 points for the entire course.

 

 

Project Type II – Co-generation at the Dartmouth Organic Farm

 

Two components:

(1) Harvesting of methane from waste biomass, storage, burning in internal combustion engine, electricity generation, and

(2) Capture of waste heat and exhaust gases, feeding heat into greenhouse, and piping of CO2 for algae culture.

 

Objectives

 

  1. Development of experience in the application of engineering analysis to an integrated multi-component energy system.
  2. Application of project management and engineering skills to a real-world problem.

 

Overview

 

The Dartmouth Organic Farm wishes to explore the feasibility of a methane-capture system to provide multiple benefits, including electricity generation, heat recovery for a greenhouse and CO2 capture for algal culture.  Students are to recommend a practical system possibly made from existing components (such as a generator unit or combined heat and power (CHP) unit) and adequately sized for the amount of methane produced.  The blueprint for this system must be accompanied by a thorough engineering analysis demonstrating the feasibility of the system, and by a cost estimate.  No prototyping is necessary for this project.

 

Deliverables

 

Students are expected to meet the following requirements during the course of the term project.  Written and oral communications are important skills for the successful engineer, and will be taken into account at times of project evaluation.

 

  1. On-paper design of the proposed system, with computer generated drawings and detailed engineering analysis;
  2. Cost estimate for proposed system;
  3. In-class oral presentation near mid-term reporting on progress and outstanding issues
  4. Oral presentation of project results in presence of representatives from the Farm;
  5. Final 10-20 page written report (including text, figures, and tables).

 

Evaluation

 

Instructor will evaluate the students based on the following criteria:

 

-         (15 points) Appropriateness and application of engineering systems

-         (10 points) Quality and reasonableness of recommendations

-         (5 points) Mid-term progress presentation

-         (10 points) Final presentation and written report.

 

Total of 40 points toward the 100 points for the entire course.