University of Kansas Sustainable Automotive Engineering

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Transcription:

University of Kansas Sustainable Automotive Engineering Assistant Professor Christopher Depcik Department of Mechanical Engineering University of Kansas 3/31/11 1

Presenter Background BSME: University of Florida MSME, MSAE, PhDME: University of Michigan Post Doc: University of Michigan Assistant Professor in KU Department of Mechanical Engineering since 2008 Emphasis: Internal Combustion Engines, Hybridization, Energy and the Environment 2

Outline Shift in Priorities Vision of Future: Choice = Application Sustainable Automotive Engineering Large Scale Practicality Small Scale Innovation Conclusion 3

Shift in Priorities Rise in Gasoline Prices Mindset of consumer shifted with automotive industry caught off guard Vehicles were touted for power over fuel economy Adaptive automotive priorities must occur within a university curriculum Moreover, traditional view of gearhead students in automotive engineering must be replaced with a reflection of the diversity of modern society U.S. Dollars per Gallon (Regular Gasoline) 1/1/1996 1/1/2001 1/1/2006 1/1/2011 $12 $10 $8 $6 $4 $2 U.S. Pump Price U.S. Adjusted for Inflation France Germany EIA (2007a, 2007b, 2007c) Italy U.K. Netherlands U.S. $0 1920 1940 1960 1980 2000 2020 Date U.S. versus Europe http://www.engineergirl.org/cms/whybeanengineer.aspx http://www.swe.org/swe/regiond/sections/sefl/templates/statisticsonwomeninengineering%5b1%5d.pdf 4

Vision of Future: Choice = Application A singular focus is erroneous Semi-trucks running on biodiesel created from algae EV in-town/city delivery trucks CNG public transit Parallel hybrid soybean oil biodiesel garbage truck KC commuter PHEV with cellulosic E-85 generator Muscle car gasoline parallel hybrid Diesel SUV Green gasoline pick-up truck H 2 Fuel Cell commuter vehicle Peanut oil biodiesel tractor LPG Motorcycle People who don t care Picture references available upon request 5

Sustainable Automotive Engineering Informed choice depends on system understanding Classic definition: meeting the needs of the present without compromising the ability of future generations to meet their own needs (Bruntland Commission, 1992) KU EcoHawks: the application of engineering principles to solving a real world problem by focusing upon the connection between the environment, energy, economy, education and ethics Conceptual picture on how to make correct decisions that are long lasting Provide adaptive framework that allows diverse group of students to choose unique focus (small or large scale) 6

Environmental Sustainability Alternative, renewable and biofuels investigation Vehicle recycling to eliminate embodied emissions Enhanced powertrains making inefficient vehicles efficient Old barn rejuvenated into vehicle manufacturing facility Conversion of 1974 VW Super Beetle into Plug in Hybrid Electric Vehicle that can charge using 100% used cooking oil biodiesel generator or solar energy filling station 7

Energy Sustainability Automobiles can be considered a sink or they can be a source Investigating grid connection to vehicle (system approach) Use vehicle as renewable energy storage medium Offset stress on electrical grid Local availability of energy (biofuels/sun/wind) versus foreign sources National security tied to smart use of energy Student built solar energy charging station can refill Beetle in half a sunny day 8

Economic Sustainability Innovate, but keep costs moderate Small scale allows novelty (e.g. 1/10 th scale parallel hybrid semi truck in 2010 11) Recycling common large scale vehicles allows use of aftermarket parts In kind donations reduce costs Actively writing grants and securing independent donations (Above) KU Remote Control fuel cell vehicle $1,500 (Below) SAHMO fuel cell concept that won Shell Eco Marathon $170,000 http://gas2.org/2009/07/13/students build hydrogen vehicle that gets 1336 mpg/ 9

Educational Sustainability Need to expose students to new technologies Foster interdisciplinary relationships Aerospace, Electrical, Chemical, Industrial Design, Business, etc Allow students to fail with reduced ramifications (failure is an essential part of success!) Success and revisit is easier (2 nd version of parallel hybrid drive train indicated) Writing and presenting efforts large part of grade Electric Motor (Above) Toyota Prius parallel hybrid drivetrain (Below) EcoHawks parallel hybrid drivetrain in RC car IC Engine 10

Incorporating K 16 Education Current state of US illustrates STEM shortage Getting word out through conferences and publications Running battery powered vehicle competition for students at KU Engineering Exposition KU Weekend of Engineering for high school girls (3/6/11): The girls always love the EcoHawk visit. They consistently ask the most questions and are the most engaged during your presentation. (Left) Student competing in 2011 KU Engineering Exposition competition (Below) Winning car used recyclable resources and used laptop battery http://www.kansan.com/photos/galleries/2011/feb/25/2011 engineering expo/ 11

Ethical Sustainability Just building the fastest, most efficient or greenest car will not be the right result Ethics must play into the decision and how will the public view the results? Bio debatable: Food vs. Fuel, Seattle Post Intelligencer 12

Vision of the KU EcoHawks A Sustainable Approach to Automobiles and Energy Infrastructure Large Scale Practicality & Small Scale Innovation 13

Large Scale Practicality Currently renovating 1997 GMC Jimmy Making it a Battery Electric Vehicle (BEV) for KU Libraries in daily delivery of material Repeatable driving cycle and charging location Increasing level of technology of program (AC motor and lithium batteries) Choice = application Vehicle Speed [mph] 50 40 30 20 10 Vehicle Speed [mph] State of Charge [-] 1.0 0.8 0.6 0.4 0.2 60Ah, 25 C, 51psi 60Ah, 25 C, 35psi 60Ah, 0 C, 35psi 90Ah, 0 C, 35psi 0 0 5 10 15 20 Miles Driven [mi] Date: 09/13/10 0.0 0 5 10 15 20 25 30 35 Distance Traveled [mi] (Top Left) 1997 GMC Jimmy minus Internal Combustion engine (Top Right) BEV simulation of recycled vehicle with LiFeYPO 4 batteries (Below) Driving cycle data collection on KU Libraries vehicle 14

Small Scale Innovation Received EPA P 3 grant to build small scale intelligent/smart grid Presenting on National Mall in April Interconnection with BEV and PHEV important Data collection in Grid to Vehicle (G2V) and Vehicle to Grid (V2G) manner Will publish and present results Only model smart grid available in Nation with vehicle connectivity Mobile scale smart grid including BEV battery pack, solar panel, wind turbine, renewable energy storage, conventional grid analog, battery management system, National Instruments data collection system, etc 15

Conclusion New, innovative program started at the University of Kansas Follows tenets of sustainability to ensure decisions being put in correct focus Students having fun, maintaining grades and learning new expertise Now, largest senior design class in ME (11 first year, 32 second year, 28 third year) Future technologies incorporated now Graduate program growing from efforts http://www.ecohawks.org 16

Thank You! 17

Class Schedule ME 640 Fall: 1 credit hour devoted to determining focus, writing a proposal and describing what team wants to accomplish ME 645 Spring: 2 credit hours devoted to performing the work and writing up results

Abstract University of Kansas (KU) students, who refer to themselves as the EcoHawks, apply engineering techniques in order to solve real world problems by approaching the situation from five vectors of success: education, energy, environment, economics and ethics. Each of these concepts individually addresses specific aspects of sustainability, shaped by the confluence of the ideals of people, planet and prosperity. It is through this multi leveled application that the students develop the means to face the challenges of a sustainable approach to automobiles and the energy infrastructure. This presentation will discuss how the following efforts include a practical approach to sustainability for current and future national needs in this area. To date, the students have recycled a 1974 VW Super Beetle that had been sitting on a car lot for over two years and turned it into a plug in series hybrid vehicle powered by lead acid batteries and a diesel generator that runs on 100% biodiesel created from the used cooking oil on campus. In addition, students built a solar energy filling station on campus that allows recharging of the Beetle battery pack in a little over half a sunny day. Current efforts focus on integrating wind energy into the facility while renovating a 1997 GMC Jimmy into a modern Electric Vehicle (AC three phase motor and LiFePO4 batteries) for use by KU Libraries on campus. Moreover, students have been able to explore advanced technologies on the small scale adding to the future capabilities of the project. This is evident by the student s unique Remote Control car builds involving fuel cell and parallel hybrid vehicles and their smart grid demonstration project in progress. Finally, the students actively integrate K 12 education in their efforts through Engineering Exposition and work interdisciplinary with other KU peers. 19