What is the Best Energy Source for Off-highway Powertrains?

Similar documents
217 IEEJ217 Almost all electric vehicles sold in China are currently domestic-made vehicles from local car manufacturers. The breakdown of electric ve

NEW ENERGY -4- MOBILITY TECHNOLOGIES

Human Energy Generation and Electrical Signal Measurement

Providing Choices for Sustainable Mobility. Takehito Yokoo Toyota Motor Engineering & Manufacturing North America, Inc.

Hydrogen Fuel Cells for Heavy Duty, Road and Rail Applications

Lithium-Ion Batteries for Electric Cars: Elena Aleksandrova Honda R&D Europe (Deutschland) GmbH Automobile Advanced Technology Research

Energy-efficient Mobility: Challenging Technologies

NGC Emissions Calculator Methodology (United Kingdom)

Pathways to Sustainable Mobility

NGC Emissions Calculator Methodology (United Kingdom)

IEA RETD Francisco Carranza Nissan Europe Bonn, 26 Oct 2012

Battery Electric Vehicles: characteristics and research projects

HyperHybrid. The efficient, affordable plug-innovation.

Renewable energy carriers: Biofuels und Hydrogen. Amela Ajanovic Vienna University of Technology, Energy Economics Group

GRID INNOVATION CAUCUS CO-CHAIRS

Toyota s Vision of Fuel Cell Vehicle Akihito Tanke

Electric Vehicles for Australia. Dr Chris Jones Australian Electric Vehicle Association

Energy Generation, Storage, and Transformation. Roderick M. Macrae

TYPE 947D, DC LINK CAPACITORS

Future Lithium Demand in Electrified Vehicles. Ted J. Miller

GRID TO VEHICLE (G2V) Presentation By Dr. Praveen Kumar Associate Professor Department of Electronics & Communication Engineering

kwh. 6 February

Energy. on this world and elsewhere. Instructor: Gordon D. Cates Office: Physics 106a, Phone: (434)

HYDROGEN. Turning up the gas. Jon Hunt. Manager Alternative Fuels TOYOTA GB CCS HFC 2019

Sustainable Personal Electric Transportation: EVs, PHEVs, and FCVs Andrew Burke Institute of Transportation Studies University of California-Davis

Flybrid mechanical kinetic energy

Plug-in Hybrid Vehicles

Future Powertrain Technology for the North American Market: Diesel & Hydrogen

BYD Battery Energy Storage Solution. BYD Design Center

Energy Economics. Lecture 6 Electricity Markets ECO Asst. Prof. Dr. Istemi Berk

Toyota. Stephen Stacey - General Manager Arjan Dijkhuizen - Senior Engineer. Government & Technical Affairs Toyota Motor Europe TOYOTA MOTOR EUROPE

Alternative Powertrain and Challenges for Next Decade

5 DAY SOLAR PV THEORY & INSTALLATION COURSE

AARHUS UNIVERSITET FLOW BATTERIER PÅ VEJ IND I KOMMERCIEL DANSK SERIEPRODUKTION

Power conversion systems for energy storage. Engineering that stores

Off-grid Power for Wireless Networks. Training materials for wireless trainers

Performance Analysis of 40 KW Solar Photovoltaic System at DTU

Data Centres Using resources to support grid systems Another revenue stream?

Dr. Jörg Wind Daimler s road to FCEV market introduction

Research Report. FD807 Electric Vehicle Component Sizing vs. Vehicle Structural Weight Report

Delivering Energy Systems Solutions

The International Cost Estimating and Analysis Association (ICEAA) Southern California Chapter September 9, 2015

Energy Storage. Outline. Need of Energy Storage. Need of Energy Storage. MAE 493R/593V- Renewable Energy Devices. Demand of energy storage

Course Syllabus and Information

2010 Advanced Energy Conference. Electrification Technology and the Future of the Automobile. Mark Mathias

Renewable Energy. Presented by Sean Flanagan

The Challenges of Electric Energy Storage. Nigel Taylor, Nick Green, Chris Lyness, Steve Nicholls

Characteristics of PM Emissions of an Automotive Diesel Engine Under Cold Start and Transient Operating Conditions

Powertrain Evolution and Electrification

Eco-Mobility 2025 plus Vienna, On the road to a sustainable mobility

Recent enhancement to SI-ICE combustion models: Application to stratified combustion under large EGR rate and lean burn

Vehicle Electrification: You'll Get a Charge Out of This!

ERCOT Overview. Paul Wattles Senior Analyst, Market Design & Development. Solar Energy Industries Association July 11, 2012

V2G and V2H The smart future of vehicle-to-grid and vehicle-to-home. September 2016

Toyota s s 5 year Environmental Action Plans: a case study

Top Loader Electrification Proposal for POLA Operations

High performance and low CO 2 from a Flybrid mechanical kinetic energy recovery system

Pedro Nunes. July 2016

Overview of Energy Storage Technologies For Renewable Integration. Jamie Patterson Sr. Electrical Engineer R&D Division California Energy Commission

APSE Big Energy Summit 2017 Electric vehicles and the Energy System

Store Energy, Green Future

A New Era for Solar Sarah Kurtz IEEE SCV-PV Series Oct 10, 2018 Palo Alto, CA

BIODIESEL WHAT IS IT? Biodiesel is a liquid fuel which can be made from any vegetable oil

EDMATECH Trends in UAV Propulsion

JEE4360 Energy Alternatives

IPRO Spring 2003 Hybrid Electric Vehicles: Simulation, Design, and Implementation

LS Mtron Ultracapacitor Stand: 2015

Accessing Value in Future Energy Systems. Market Design facilitating local markets Robyn March 2018

Plug-in Hybrids: The Cars of the Future?

EV s and future Charging Solutions

Electric Vehicles and Solar PV A Total Cost of Ownership Approach"

SuperGen - Novel Low Cost Electro-Mechanical Mild Hybrid and Boosting System. Jason King, Chief Engineer

A next-generation smart grid without energy storage is like a computer without a hard drive: severely limited. - Katie Fehrenbacher, gigaom.

DYNAMIC MODELING RESIDENTIAL DATA AND APPLICATION

Faraday s Challenge Electrochemical energy storage

BIDIRECTIONAL DC-DC CONVERTER FOR INTEGRATION OF BATTERY ENERGY STORAGE SYSTEM WITH DC GRID

1 HYDROGEN. Hydrogen is the lightest element and the most abundant chemical substance in nature, constituting roughly 75% of the Universe's mass

Vehicle Performance. Pierre Duysinx. Research Center in Sustainable Automotive Technologies of University of Liege Academic Year

Onboard DC Grid. Jan Fredrik DP Conference 2011; Houston. for enhanced DP operation in ships

Reaching 100% Renewables for the Power Sector in Hawaii. Makena Coffman Professor and Chair Urban and Regional Planning Research Fellow, UHERO

2011 Advanced Energy Conference -Buffalo, NY

Power Electronics. Rajeev Ram, Program Director, ARPA-E

Global EV Outlook 2017 Two million electric vehicles, and counting

Electric mobility, renewables and smart grids: the state of the art. Professor David Gray Robert Gordon University Aberdeen

The role of Hydrogen in Sustainable Mobility

Comparing the powertrain energy and power densities of electric and gasoline vehicles

Driving to Net Zero with full performance. Bob Simpson - founder and CTO of EVDrive Inc

Using Opal-RT Real-Time Simulation and HIL System in Power and Energy Systems Research

EV 2.0 SOLUTION DESIGN PRESENTATION GOODNESS FOWORA IKENNA ONYENZE ARINZE UDEH OLANIYI NAFIU. Advisor: Dr. Emmanuel Glakpe (ME)

POWERTRAIN SOLUTIONS FOR ELECTRIFIED TRUCKS AND BUSES

A D V A N C E D R E N E W A B L E

Ph: October 27, 2017

EV1 RETROSPECTIVE AND THE ELECTRIC VEHICLE REVOLUTION ROBERT DAWSEY VICE PRESIDENT, ENGINEERING AND OPERATIONS FLEX POWER CONTROL INC.

Renewable Energy for Minnesota. Progress in Fuel Cell Research at CPG

PHYS Energy and Environmental Physics

800 Series Fuel Cell Module. Zero Emission. Quiet Operation. Compact Power Solution

Resource management. An end-to-end architecture for energy storage in the grid

FLYWHEEL POWER GENERATION AND MULTIPLICATION

ZOE Battery Durability, Field Experience and Future Vision

Utilization of DME as Alternative Fuel : Prospect and Challenge in Indonesia

Transcription:

Professor Colin Garner PhD, FREng Chair in Applied Thermodynamics Loughborough University 1

Types of machines: A) Tethered B) Semi-Tethered e.g. electric trains [1] Electrical energy normally from electricity grid C) Non-tethered Geographic flexibility On-board energy The focus of this presentation 2

Types of Vehicle/Machine Powertrain Systems: Primary On-Board Energy Source: Key: = Energy Flows IC Engine Fuel Tank IC Engine and IC Engine-hybrid Fuel Tank IC Engine and Regeneration System/Store e.g. Battery Battery Electric Battery Motor(s) and 3

Types of Vehicle/Machine Powertrain Systems: Primary On-Board Energy Source: Key: = Energy Flows IC Engine Fuel Tank IC Engine and IC Engine-hybrid Fuel Tank IC Engine and X Regeneration System/Store e.g. Battery Battery Electric Battery Motor(s) and 4

Types of Vehicle/Machine Powertrain Systems: Primary On-Board Energy Source: Key: = Energy Flows IC Engine Fuel Tank IC Engine and IC Engine-hybrid Fuel Tank IC Engine and Regeneration System/Store e.g. Battery Battery Electric Battery Motor(s) and 5

1. Global and Local Emissions 2. Energy and Power 3. Comparison - IC Engine/ICE Hybrid vs Pure Battery powertrain 4. Utility of Diesel Fuel and IC Engines 5. Energy Production 6. Conclusions 6

1. Global and Local Emissions Stage V emissions very low; e.g. PM <0.015 g/kw.hr PN <10 12 particles/kw.hr >23 nm 56-130 kw power range NOx <0.4 g/kw.hr ~4.4% NOx and ~2.1% PM of 1999 Stage I emissions levels Machine fuel economy high; hence low CO 2 7

2. Energy and Power Energy: Joules, J High values allow us to do a lot of work Power: Rate of energy, Joules per second = Watts, W High values allow us to do a lot of energy transfer and work quickly The car time machine Flux Capacitor needed 1.21 GW of power, so a lightning strike was used 8

Energy: Joules, J High values allow us to do a lot of work Need a prime on-board energy store i.e. Fuel tank or Battery pack What is best? Fuel energy from fuel supply ICE or ICE-hybrid Fuel tank Pure Battery Electric Battery pack Electrical energy from electricity grid 9

Battery Capability now and future: The UK Automotive Council in 2017 set several targets for the battery Faraday Challenge to meet by year 2035, as follows: Reduce battery cell cost from 100/kWh to 38/kWh (i.e. 28/MJ to 10/MJ) Double a battery cell s energy density, from 250 Wh/kg to 500 Wh/kg (i.e. 0.9 MJ/kg to 1.8 MJ/kg) Increase a battery cell s coldest operating temperature from -20 C to -40 C, and hottest operating temperature from 60 C to 80 C Improve a battery pack s recyclability from 10-50% to 95% Source: [2] http://www.apcuk.co.uk/2017/07/apc-launches-competition-to-support-uks-first-battery-manufacturing-development-facility/ 10

3. Comparison IC Engine (or ICE-Hybrid) machine versus Battery-only machine Using year 2035 target battery cell values: Example: Machine with Diesel fuel tank volume = 150 litres Assume: Engine brake fuel conversion efficiency is only 33% Assume: Battery-electric system is 100% efficient Assume: Lower Heating Value of diesel fuel = 42.5 MJ/kg 150 litre fuel tank Battery Year 2035 Effective energy in store 1.77 x 10 9 J 1.77 x 10 9 J Battery Year 2017 1.77 x 10 9 J Mass of the energy store ~ 160 kg (including the fuel) 983 kg (just for the cells) 1967 kg Cost of energy store ~ 100 (tank; pipes; sensors) 17,700 (just for the cells) 49,560 11

3. Comparison IC Engine (or ICE-Hybrid) machine versus Battery-only machine Energy store filling or charging rate: 1.77 x 10 9 J of effective energy needs to be delivered Fuel energy from fuel supply Fuel tank 150 litres at fuelling rate of 50 litres per minute = 3 minutes = 180 secs: (1.77 x 10 9 / 180 ) J/sec (i.e. W) = 9.83 MW Electrical energy from electricity grid Battery Pack 9.83 MW of electrical charge rate is impractical (i.e. the sheer amount and the heating effect) A 120 kw battery fast-charger system would take 4 hours if linear Access to a charger? Big challenge 12

4. Utility of Diesel Fuel and IC Engines Utility of Using Diesel Fuel: 1. High oil reserves / production (R/P) ratio > 50 years [3] 2. Low production costs and energy for processing the fuel 3. Relatively safe and cheap to store [e.g. you can have 3,500 litres of fuel oil at your house [4] ] 4. Easy to store and handle [high density liquid; atmospheric pressure and temperatures] 5. Fast fuelling 6. Wide access Utility of IC Engines (includes): 1. High energy and high power 2. Untethered operation 3. Low cost 4. Durability 5. Ability to operate in extreme ambient conditions 6. Challenge: local emissions these are being progressively reduced 7. Fuel versatility 13

5. Energy Production Electrical energy can be derived from many sources e.g. nuclear, wind, gas, bio-mass, coal, solar, hydro, etc. Hydrocarbon fuels have many sources including renewable i.e. we are not tied to crude oil [even though oil supplies are large] IC Engines can be run on a wide variety of fuels including renewable Dave Richardson Jaguar Land Rover 2010 Used with kind permission 14

1. Global and Local Emissions 2. Energy and Power 3. Comparison - IC Engine/ICE Hybrid vs Pure Battery powertrain 4. Utility of Diesel Fuel and IC Engines 5. Energy Production 6. Conclusions 15

6. Conclusions 1. A pure Battery Electric powertrain is currently considered impractical for many types of off-highway machines, and this is expected to remain the same for many years. 2. IC Engine (and/or IC Engine-hybrid) powertrains are expected to remain the best system for most untethered off-highway machines for many years, because: Low cost Fast fuelling High energy Energy access Excellent utility Fuel versatility 3. Emissions are at very low levels and are being further reduced. 16

References [1] http://www.albancat.com/new/allied-products/electric-tools/eh27 (accessed 19 August 2017) [2] http://www.apcuk.co.uk/2017/07/apc-launches-competition-to-support-uks-first-battery-manufacturing-development-facility/ (accessed 19 August 2017) [3] http://www.bp.com/en/global/corporate/energy-economics/statistical-review-of-world-energy/oil/oil-reserves.html (accessed 19 August 2017) [4] https://www.gov.uk/oil-storage-regulations-and-safety/home (accessed 19 August 2017) 17