Hydrogen Production Progress Update
|
|
|
- Brianna Strickland
- 6 years ago
- Views:
Transcription
1 Hydrogen Production Progress Update October 5, Fall Rebecca Krentz-Wee Derek Sutherland Ben Nield Lauren Chilton
2 Presentation Outline Objectives Hydrogen economy viable? Options Steam Methane Reforming (SMR) Westinghouse Sulfur Process (WSP) Water Electrolysis (ES) HT Steam Electrolysis (HTSE) Sulfur-Iodine (S-I) Br-Ca-Fe (UT-3) Bacteria / Urine Comparison
3 Hydrogen economy viability? Chemical Properties Difficult to contain in gaseous forms Parasitic energy losses Cryogenics required for best storage Safety concerns Infrastructure Overhaul Multi-billion dollar distribution framework required Conclusion: A hydrogen economy is not technically or economically viable in the relatively near future.
4 Engineering Objectives Hydrogen Production Required Temperature 0.1 kg/s at STP < 800 C Power Consumption Environmental Impact < 150 MW Zero Greenhouse Emissions
5 Options - Steam Methane Reforming Currently used commercially Input temperature: C 70% efficient By-product: CO 2 Konopka, Alex J., and Gregory, Derek P. "Hydrogen Production by Electrolysis: Present and Future." Institute of Gas Technology, Chicago IL. IECEC 1975 Record.
6 Options - Westinghouse Sulfur Process (WSP) o 800 C Courtesy of Edward J. Lahoda. Used with permission.
7 Options - Water Electrolysis Polymer Electrolyte Membrane Alkaline Electrolyzers o C at P atm o C at P atm Konopka, Alex J. and Gregory, Derek P. Hydrogen Production by Electrolysis: Present and Future. Institute of Gas Technology, Chicago, Illinois IECEC 1975 Record.
8 Options - Water Electrolysis Efficiency Process Overall 75% 25-45% Production Rate Energy Generation 30% Konopka, Alex J. and Gregory, Derek P. Hydrogen Production b Electrolysis: Present and Future. Institute of Gas Technology, Chicago, Illinois IECEC 1975 Record.
9 Options - HT Steam Electrolysis Steam Konopka, Alex J. and Gregory, Derek P. Hydrogen Production by Electrolysis: Present and Future. Institute of Gas Technology, Chicago, Illinois IECEC 1975 Record.
10 HTSE Process H2O+2e->H2+O Chemically stable electrolyte Hydrogen and Oxygen released through porous material Hydrogen Steam Electrolyte Porous cathode Porous anode U.S. DOE factsheet for high-temperature electrolysis
11 HTSE Advantages High efficiency (enthalpy of steam vs water) No pollutants Uses reactor heat Simple chemistry Improvement with temperature
12 HTSE Thermodynamics Spinger-Verlag. All rights reserved. This content is excluded from our Creative Commons license. For more information, see
13 Options - Sulfur-Iodine Cycle 850 C 450 C Courtesy of Elsevier, Inc., Used with permission.
14 Options - Sulfur-Iodine Cycle Advantages Commercial scalability No greenhouse emissions Cheap reactants Disadvantages Very high temperatures required (850 C +) Material concerns due to aggressive chemistry Heat exchanger design limitations at high temperatures Process efficiency limited to roughly 34-37%
15 Options - Br-Ca-Fe (UT-3) Process Heat Input Heat Input Oxygen Separation Unit Ca Reactor Unit Fe Reactor Unit Hydrogen Separation Unit Oxygen Bromine Hydrobromic Acid Hydrogen A. Aochi et al., Economical and technical evaluation of UT-3 thermochemical hydrogen production process for an industrial scale plant. Int. J. Hydrogen Energy, 14(7): , 1989.
16 Options - Br-Ca-Fe (UT-3) Advantages Can occur at a lower temperature than the sulfur-iodine process Commercially scalable method of hydrogen production No greenhouse gases produced Disadvantages Efficiency limited to ~ 40%, but a soft limit Material concerns, though not as prominent as SI Higher temperature than core output is required
17 Options - Bacteria Dark fermentation is most commercially viable approach of bacterial hydrogen production. Advantages Low temperatures required Limited material concerns Disadvantages Uncertainty on scalability due to limited research Expensive strains required Contamination concerns Large volume of bacteria mixture required
18 Options - Urine Breaking down urea into hydrogen Storage and transport of human waste Hydrolyzes over time-->fast process needed Large volume of waste needed
19 Comparison of Processes Process Materials Temp [ C] Pressure [atm] Efficiency [%] Feasibility ES Water, Electrolytes, Anode/Cathode ~ drastic scaling needed HTSE Ceramics only small scale SI Ceramics commercially viable, but too high temp SMR Nickel catalyst commercially viable, but polluting UT-3 Ceramics commercially viable
20 Final Decision: UT-3 Process Well demonstrated over three decades Minor material concerns Commercially viable Reasonable temperatures required No greenhouse emissions Relatively cheap reactants
21 Next Steps Scale/capacity Hydrogen storage/reserves Material concerns Transportation to biofuels
22 MIT OpenCourseWare / Nuclear Systems Design Project Fall 2011 For information about citing these materials or our Terms of Use, visit:
Large Scale Hydrogen Production Using Nuclear Energy
Large Scale Hydrogen Production Using Nuclear Energy William A. Summers Program Manager Energy Security Department Savannah River National Laboratory Third International Hydrail Conference Salisbury, North
Hydrogen Generation. Analyzing the viability of Hydrogen as a mobile energy carrier
Hydrogen Generation Analyzing the viability of Hydrogen as a mobile energy carrier 1 Introduction 5 Cycles and Previous Studies 2 Why Are We Interested in Hydrogen? Hydrogen Technologies Hydrogen Generation
Alkaline Electrolysers Wind and Photovoltaic Power Sources. Hannover Messe 2013 Hydrogen and Fuel cell
Alkaline Electrolysers Wind and Photovoltaic Power Sources Hannover Messe 2013 Hydrogen and Fuel cell Committed to excellence and innovation since its creation, H2Nitidor offers high efficiency Pressurized
LARGE-SCALE PRODUCTION OF HYDROGEN BY NUCLEAR ENERGY FOR THE HYDROGEN ECONOMY
GA A24265 LARGE-SCALE PRODUCTION OF HYDROGEN BY NUCLEAR ENERGY FOR THE HYDROGEN ECONOMY by K.R. SCHULTZ, L.C. BROWN, G.E. BESENBRUCH, and C.J. HAMILTON FEBRUARY 2003 DISCLAIMER This report was prepared
Prospect of solid oxide steam electrolysis for hydrogen production
Prospect of solid oxide steam electrolysis for hydrogen production Meng Ni a, Michael K.H. Leung b, Dennis Y.C. Leung c a Department of Mechanical Engineering, The University of Hong Kong, Pokfulam Road,
Methanol Steam Reformer High Temperature PEM Fuel Cell System Analysis
Annex 3 to EDA Comm N 12/027 Methanol Steam Reformer High Temperature PEM Fuel Cell System Analysis Andrej LOTRIČ (Mebius d.o.o., Na jami 3, SI-1000 Ljubljana, Slovenia) and Stanko HOČEVAR (Mebius d.o.o.,
A Comparison of Two Engines. Benefits of an Electric Motor
Fuel Cells (http://www.stanford.edu/group/fuelcell/images/fuel%0cell%0components.jpg) Lecture prepared with the able assistance of Ritchie King, TA 1 A Comparison of Two Engines Internal-combustion engine
ENVIRONMENT-FRIENDLY HYDROGEN GAS AS FUEL IN FUEL CELL AND ITS CHALLENGES
ENVIRONMENT-FRIENDLY HYDROGEN GAS AS FUEL IN FUEL CELL AND ITS CHALLENGES Hydrogen is the simplest and lightest element. Storage is one of the greatest problems for hydrogen. It leaks very easily from
Nuclear-Power Ammonia Production
Nuclear-Power Ammonia Production William L. Kubic, Jr. Process Engineering, Modeling,and Analysis Group, New Mexico October 9, 2006 Why Nuclear-Powered Ammonia Production? Many in the nuclear community
Laurea in Scienza dei Materiali Materiali Inorganici Funzionali. Electrolyzers
Laurea in Scienza dei Materiali Materiali Inorganici Funzionali Electrolyzers Prof. Dr. Antonella Glisenti -- Dip. Scienze Chimiche -- Università degli Studi di di Padova H 2 by Electrolysis High purity
Fuel Cell Technology
Fuel Cell Technology 1. Technology overview 2. Fuel cell performance 3. Fuel cell systems 4. Sample calculations 5. Experiment using PEM cell Goal: To provide a better understanding of the fuel cell technology,
Fuel Cells in Energy Technology (9) Werner Schindler Department of Physics Nonequilibrium Chemical Physics TU München summer term 2013
Fuel Cells in Energy Technology (9) Werner Schindler Department of Physics Nonequilibrium Chemical Physics TU München summer term 2013 - Source - Distribution - CO poisoning - Emissions (true zero, CO
Solid State Ammonia Synthesis NHThree LLC
Solid State Ammonia Synthesis NHThree LLC Jason C. Ganley John H. Holbrook Doug E. McKinley Ammonia - A Sustainable, Emission-Free Fuel October 15, 2007 1 Inside the Black Box: Steam Reforming + Haber-Bosch
USE OF THE MODULAR HELIUM REACTOR FOR HYDROGEN PRODUCTION
G A-A24428 USE OF THE MODULAR HELIUM REACTOR FOR HYDROGEN PRODUCTION by K.R. SCHULTZ r c SEPTEMBER 2003 This report was prepared as an account of work sponsored by an agency of the United States Government.
Hydrogen production via catalytic water splitting. Prospects of reducing greenhouse emission by hydrogen powered energy technologies
Hydrogen production via catalytic water splitting Prospects of reducing greenhouse emission by hydrogen powered energy technologies Increasing molecular weight Mass energy densities for various fuels Fuel
The Promise and Challenge of Hydrogen Energy
The Promise and Challenge of Hydrogen Energy Mujid S. Kazimi Director, Center for Advanced Nuclear Energy Systems (CANES) Massachusetts Institute of Technology 14th Pacific Basin Nuclear Conference March
REDUCTION OF CO 2 EMISSION TO METHANE USING HYDROGENATION WITH NICKEL (110) SURFACE CATALYST
REDUCTION OF CO 2 EMISSION TO METHANE USING HYDROGENATION WITH NICKEL (110) SURFACE CATALYST G. Santoshi 1, Ch. SaiRam 2, M. Chaitanya 3 1,2,3 Civil Engineering,Miracle Educational Society Group of Institutions,
High Efficiency Large PEM Electrolyzers
High Efficiency Large PEM Electrolyzers Monjid Hamdan Director of Engineering Giner, Inc. 89 Rumford Ave, Newton, Ma. 02466 Outline Giner, Inc. Overview Advancements in Efficiency New Membranes Coming
A 10 kw class natural gas-pemfc distributed heat and power cogeneration system
Available online at www.sciencedirect.com Energy Procedia 28 (2012 ) 162 169 Fuel Cells 2012 Science & Technology A Grove Fuel Cell Event A 10 kw class natural gas-pemfc distributed heat and power cogeneration
Nuclear Hydrogen Production in Saudi Arabia: Future and Opportunities
Nuclear Hydrogen Production in Saudi Arabia: Future and Opportunities Abdullah A. AlZahrani University of Ontario Institute of Technology, Oshawa, Canada. Umm Al-Qura University, Makkah, Saudi Arabia.
PROCESS ECONOMICS PROGRAM. Report No by NICK KORENS ROBERT W. VAN SCOY. January private report by the PARK, CALIFORNIA
Report No. 110 SYNTHESIS GAS PRODUCTION by NICK KORENS and ROBERT W. VAN SCOY January 1977 A private report by the PROCESS ECONOMICS PROGRAM STANFORD RESEARCH INSTITUTE I MENLO PARK, CALIFORNIA For detailed
Hydrogen-Rich Gas Production from Plasmatron Reforming of Biofuels
PSFC/JA-4-22 Hydrogen-Rich Gas Production from Plasmatron Reforming of Biofuels Hadidi, K., Bromberg, L., Cohn, D.R., Rabinovich, A. Alexeev *, N., Samokhin *, A. Plasma Science and Fusion Center Massachusetts
Synergistic Energy Conversion Processes Using Nuclear Energy and Fossil Fuels
Synergistic Energy Conversion Processes Using Energy and Fossil Fuels Masao Hori Systems Association, Japan Email: mhori@mxb.mesh.ne.jp ABSTRACT This paper reviews the methods of producing energy carriers,
Transportation in a Greenhouse Gas Constrained World
Transportation in a Greenhouse Gas Constrained World A Transition to Hydrogen? Rodney Allam Director of Technology Air Products PLC, Hersham, UK 3 4 The Problem: demand and cause People Prosperity Pollution
Production of Synthesis Gas by High-Temperature Electrolysis of H 2 O and CO 2 (Coelectrolysis)
Production of Synthesis Gas by High-Temperature Electrolysis of H 2 O and CO 2 (Coelectrolysis) Carl Stoots Idaho National Laboratory www.inl.gov Sustainable Fuels from CO 2, H 2 O, and Carbon-Free Energy
Jing Su and Chang-Won Park Dept. of Chemical Engineering, University of Florida, Gainesville, FL 32611
A Compact Reformer for Portable Fuel Cells Jing Su and Chang-Won Park Dept. of Chemical Engineering, University of Florida, Gainesville, FL 32611 Abstract A compact reformer to generate hydrogen for portable
Biomass Part I: Resources and uses. William H. Green Sustainable Energy MIT November 16, 2010
Biomass Part I: Resources and uses William H. Green Sustainable Energy MIT November 16, 2010 Sustainable Energy: Big Picture People want electricity, transport, heat Now use: coal oil gas Major Challenges:
Glass in energy. Glasses for fuel cells and H 2 storage MAT 498
Glass in energy Glasses for fuel cells and H 2 storage MAT 498 Lehigh University Rui M. Almeida Glass in energy Spring 2012 1 Fuel cells Rui M. Almeida Glass in energy Spring 2012 2 Fuel cells and the
Lecture: Systems Analysis Methodologies
Lecture: Systems Analysis Methodologies Dr. John C. Wright MIT - PSFC 28 SEP 2010 Introduction Outline OUTLINE Scoping study Systems analysis - increasing detail Life cycle analysis Simulation models Risk
Exergy & Environmental Based Comparison of Hydrogen Production from Natural gas, Carbon and Nuclear energy
15 th International Conference on Environmental Science and Technology Rhodes, Greece, 1 August to 2 September 2017 Exergy & Environmental Based Comparison of Hydrogen Production from Natural gas, Carbon
Green usage of fossil fuels with solid oxide fuel cell
211 2nd International Conference on Environmental Science and Development IPCBEE vol.4 (211) (211) IACSIT Press, Singapore Green usage of fossil fuels with solid oxide fuel cell H.Kazemi Esfeh Faculty
Energy From Electron Transfer. Chemistry in Context
Energy From Electron Transfer Chemistry in Context Energy Types Batteries Hybrid Cars (Electrical) H 2 (and Other) Fuel Cells Solar Fuel Cell Car Demo H 2 Fuel Cell Reactions Step 1: H 2 (g) 2H + (aq)
New Energy Conservation Technologies
Queensland University of Technology & University of Queensland Jan 2004 New Energy Conservation Technologies By Julian Dinsdale Executive Chairman, Ceramic Fuel Cells Limited ABSTRACT During the next one
Recent Advances in PEM Electrolysis and their Implications for Hydrogen Energy Markets
Recent Advances in PEM Electrolysis and their Implications for Hydrogen Energy Markets By Everett Anderson Symposium on Water Electrolysis and Hydrogen as Part of the Future Renewable Energy System 10-11
Hydrogen Workshop for Fleet Operators
Hydrogen Workshop for Fleet Operators Module 2, Hydrogen Production, Distribution and Delivery Hydrogen Production, Distribution, & Delivery Outline 1. Hydrogen Production 2. Hydrogen Delivery Pipeline
GA A23510 HIGH EFFICIENCY GENERATION OF HYDROGEN FUELS USING NUCLEAR POWER
GA A23510 HIGH EFFICIENCY GENERATION OF HYDROGEN FUELS by G.E. BESENBRUCH, L.C. BROWN, J.F. FUNK, S.K. SHOWALTER SEPTEMBER 2000 DISCLAIMER This report was prepared as an account of work sponsored by an
Wet Cells, Dry Cells, Fuel Cells
page 2 page 3 Teacher's Notes Wet Cells, Dry Cells, Fuel Cells How the various electrochemical cells work Grades: 7-12 Duration: 33 mins Program Summary This video is an introductory program outlining
Hydrogen oxygen steam generator integrating with renewable energy resource for electricity generation
Available online at www.sciencedirect.com Energy Procedia 29 (2012 ) 12 20 World Hydrogen Energy Conference 2012 Hydrogen oxygen steam generator integrating with renewable energy resource for electricity
ENERGY CARRIERS AND CONVERSION SYSTEMS Vol. II - Molten Carbonate Fuel Cells - Kouichi Takizawa
MOLTEN CARBONATE FUEL CELLS Kouichi Takizawa Tokyo Electric Power Company, Japan Keywords: alkali metal carbonate, coal gasfication gas, lithium aluminate, nickel oxide, wet seal. external reforming, internal
A FUEL CELL AS A PETROL SUBSTITUTE; A FEASABILITY STUDY
A FUEL CELL AS A PETROL SUBSTITUTE; A FEASABILITY STUDY SALAH I. AL-MOUSLY, member, IEEE, and ZIAD K. ALHAMDANI, member, ASA Faculty of Electronic Engineering, P.O. Box 38645, Libya ABSTRACT In the end
FUEL CELLS: Types. Electrolysis setup
FUEL CELLS: Types History of the technology The fuel cell concept was first demonstrated by William R. Grove, a British physicist, in 1839. The cell he demonstrated was very simple, probably resembling
The Hydrogen Society A National Feasibility Study
The Hydrogen Society A National Feasibility Study [Hydrogensamfunnet en nasjonal mulighetsstudie] May 2000 A report prepared by SINTEF Energy Research, Trondheim Institute for Energy Technology, Kjeller
Renewable NH3 and Direct NH3 Fuel Cells: Canadian R&D for Clean Distributed Electricity Generation
Renewable NH3 and Direct NH3 Fuel Cells: Canadian R&D for Clean Distributed Electricity Generation Presented at 9 th Annual NH3 Fuel Conference San Antonio, TX Andrew McFarlan, Ph.D. October 1 2012 CanmetENERGY
Conversion of CO 2 Gas to CO Gas by the Utilization of Decarburization Reaction during Steelmaking Process
, pp. 413 418 Conversion of CO 2 Gas to CO Gas by the Utilization of Decarburization Reaction during Steelmaking Process Hiroyuki MATSUURA* and Fumitaka TSUKIHASHI Department of Advanced Materials Science,
High Temperature Solid- Oxide Electrolyzer 2500 Hour Test Results at the Idaho National Laboratory
INL/CON-09-16888 PREPRINT High Temperature Solid- Oxide Electrolyzer 2500 Hour Test Results at the Idaho National Laboratory AIChE Annual Meeting Carl Stoots James O Brien Stephen Herring Keith Condie
S. Authayanun 1 and A. Arpornwichanop 2 1
S. Authayanun 1 and A. Arpornwichanop 2 1 Department of Chemical Engineering, Faculty of Engineering, Srinakharinwirot University, Thailand 2 Department of Chemical Engineering, Faculty of Engineering,
Thermodynamic Analysis and Process Simulation of Syngas Production from Methane using CoWO4 as Oxygen Carrier
Thermodynamic Analysis and Process Simulation of Syngas Production from Methane using owo4 as Oxygen arrier P. E. González-Vargas, M. J. Meléndez-Zaragoza, V. ollins-martínez, A. López-Ortiz* entro de
Control of High Efficiency PEM Fuel Cells for Long Life, Low Power Applications Part 2
Control of High Efficiency PEM Fuel Cells for Long Life, Low Power Applications Part 2 Jekanthan Thangavelautham Postdoctoral Associate Field and Space Robotics Laboratory Outline Review PEM Fuel Cell
Boiling point in C. Colour in aqueous solution. Fluorine 188 colourless. Chlorine 35 pale green. Bromine X orange.
Q1.This question is about halogens and their compounds. The table below shows the boiling points and properties of some of the elements in Group 7 of the periodic table. Element Boiling point in C Colour
System Level modelling of fuel cell driven electric vehicles. Master s thesis in Electric Engineering ALBERT CERDÁN CODINA
System Level modelling of fuel cell driven electric vehicles Master s thesis in Electric Engineering ALBERT CERDÁN CODINA Elteknik Power Electronics Department CHALMERS UNIVERSITY OF TECHNOLOGY Gothenburg,
To Hydrogen or not to Hydrogen. Potential as a Ship Fuel. Dr. John Emmanuel Kokarakis. Emmanuel John Kokarakis University of Crete
To Hydrogen or not to Hydrogen. Potential as a Ship Fuel Dr. John Emmanuel Kokarakis Emmanuel John Kokarakis University of Crete THE VISION "I believe that water will one day be employed as fuel, that
2015 O LEVEL CHEMISTRY 5073/02
OF SCIENCE 2015 O LEVEL CHEMISTRY 5073/02 SECTION A 1. The table shows some common oxidation states for some elements in their compounds. element common oxidation states metal / non-metal A 2 non-metal
Batteries and fuel cell research
Batteries and fuel cell research Sri Narayan worked for 20 years at NASA s Jet Propulsion Laboratory (JPL) where he led the fuel cell research activities for over 15 years and also headed the Electrochemical
PERP/PERP ABSTRACTS Carbon Monoxide PERP 09/10S11
PERP/PERP ABSTRACTS 2010 Carbon Monoxide PERP 09/10S11 Report Abstract December 2010 Report Abstract Carbon Monoxide PERP 09/10S11 December 2010 The ChemSystems Process Evaluation/Research Planning (PERP)
Options for Renewable Hydrogen Technologies
Options for Renewable Hydrogen Technologies Robert J. Evans Electric and Hydrogen Technologies & Systems Energy & Agricultural Carbon Utilization Athens, Georgia June 11-12, 2004 Presentation Outline Hydrogen
Low Cost Bipolar Plates for Large Scale PEM Electrolyzers
1 Low Cost Bipolar Plates for Large Scale PEM Electrolyzers A. S. Gago, A. S. Ansar, P. Gazdzicki, N. Wagner, J. Arnold, K. A. Friedrich Electrochemical Energy Technology Institute of Engineering Thermodynamics
Modeling of HTPEM Fuel Cell Start-Up Process by Using Comsol Multiphysics
Modeling of HTPEM Fuel Cell Start-Up Process by Using Comsol Multiphysics Y. Wang *1,2, J. Kowal 1,2 and D. U. Sauer 1,2,3 1 Electrochemical Energy Conversion and Storage Systems Group, Institute for Power
For personal use only
Hazer Group Ltd Suite 7, 29 The Avenue, Nedlands, WA 6009 PO Box 1458, West Perth WA 6872 PRELIMINARY CONCEPTUAL MODELLING & ECONOMIC ANALYSIS OF THE HAZER PROCESS Process modelling and comparative economic
Process HEAT PROGRESS REPORT. Lauren Ayers Sarah Laderman Aditi Verma Anonymous student
Process HEAT PROGRESS REPORT Lauren Ayers Sarah Laderman Aditi Verma Anonymous student Outline System Diagram Heat Exchangers Compressors Heat Transport Heat Storage Required Inputs System Diagram Printed
Biomass Conversion to Drop-in Fuels
Biomass Conversion to Drop-in Fuels 2 The world s largest technical ceramics company Over 3 Million Sq Ft Manufacturing Space Over 3500 Employees Over 7 million pounds/month ceramic material production
A feasibility study of implementing an Ammonia Economy
Graduate Theses and Dissertations Graduate College 2008 A feasibility study of implementing an Ammonia Economy Jeffrey Ralph Bartels Iowa State University Follow this and additional works at: http://lib.dr.iastate.edu/etd
Solar Hydrogen Production
Solar Hydrogen Production University of Oslo Centre for Materials and Nanotechnology Athanasios Chatzitakis a.e.chatzitakis@smn.uio.no Japan-Norway Energy Science Week 2015 27-28 May 2015 Oslo Innovation
Nuclear Hydrogen for Peak Electricity Production and Spinning Reserve
ORNL/TM-2004/194 Nuclear Hydrogen for Peak Electricity Production and Spinning Reserve C. W. Forsberg Oak Ridge National Laboratory January 2005 DOCUMENT AVAILABILITY Reports produced after January 1,
SULFUR-IODINE THERMOCHEMICAL CYCLE FOR HYDROGEN PRODUCTION
Huang Dan SULFUR-IODINE THERMOCHEMICAL CYCLE FOR HYDROGEN PRODUCTION Bachelor Thesis CENTRAL OSTROBOTHNIA UNIVERSITY OF APPLIED SCIENCES Degree Program in Chemical and Technical Engineering June 2009 Abstract
Distributed and Large Scale Hydrogen Production Methods
Distributed and Large Scale Hydrogen Production Methods George H. Miley University of Illinois Apriil 22, 2009 1 Outline Comments about the Hydrogen Economy Production of Hydrogen Distributed and Central
Local Hydrogen Production via Catalytic Reformation of Fossil and Renewable Feedstocks
Local Hydrogen Production via Catalytic Reformation of Fossil and Renewable Feedstocks Nazim Muradov, Franklyn Smith Florida Solar Energy Center Start Date = June, 2002 Planned Completion = December, 2006
H 2 Production for Fuel Cells and Catalyst Deactivation
KE-40.4140 Environmental catalysis H 2 Production for Fuel Cells and Catalyst Deactivation D.Sc. Reetta Kaila Helsinki University of Technology (TKK) Department of Biotechnology and Chemical Technology
PEM & Alkaline Electrolyzers Bottom-up Manufacturing Cost Analysis
PEM & Alkaline Electrolyzers Bottom-up Manufacturing Cost Analysis Yong Yang Austin Power David Hart E4tech November 10, 2014 Austin Power Engineering LLC 1 Cameron ST Wellesley, MA 02482 USA www.austinpowereng.com
Topic 2.7 EXTRACTION OF METALS. Extraction of Iron Extraction of Aluminium Extraction of Titanium Recycling
Topic 2.7 EXTRACTION OF METALS Extraction of Iron Extraction of Aluminium Extraction of Titanium Recycling EXTRACTING METALS FROM THEIR ORES Most metals do not occur native. They exist in compounds, usually
Biomass Based Fuel Cells - Application to Manned Space Exploration
Biomass Based Fuel Cells - Application to Manned Space Exploration Aarne Halme Dept. of Automation and Systems Technology Helsinki University of Technology aarne.halme@tkk.fi ABSTRACT Long-term energy-demanding
Solar Technologies redox cycles for hydrogen and syngas production Dr. Christian Sattler
DLR.de Chart 1 Solar Technologies redox cycles for hydrogen and syngas production Dr. Christian Sattler Christian.sattler@dlr.de DLR.de Chart 2 > R&D on CSP and Solar Chemistry > Sattler Japanese CSP Society
An Industrial Perspective on Business Potential of Solar Hydrogen
ASTRI Annual Symposium A Stable Solar Future An Industrial Perspective on Business Potential of Solar Hydrogen May 2th, 2016 Ayako MATSUMOTO Technology and Innovation Studies Division Mitsui Global Strategic
BIOGAS PURIFICATION AND UTILIZATION. ENVE 737 Anaerobic Biotechnology for Bio-energy Production
BIOGAS PURIFICATION AND UTILIZATION ENVE 737 Anaerobic Biotechnology for Bio-energy Production 1 Biogas Utilization 2 Biogas Utilization Production of Heat & Steam Electricity Production o o o Internal
Simulation And Optimization Of Waste Gas Fuel Cell System For Power Generation
AUSTRALIAN JOURNAL OF BASIC AND APPLIED SCIENCES ISSN:1991-8178 EISSN: 239-8414 Journal home page: www.ajbasweb.com Simulation And Optimization Of Waste Gas Fuel Cell System For Power Generation 1,2 Ahmad
Edexcel GCSE Chemistry. Topic 4: Extracting metals and equilibria. Obtaining and using metals. Notes.
Edexcel GCSE Chemistry Topic 4: Extracting metals and equilibria Obtaining and using metals Notes 4.1 Deduce the relative reactivity of some metals, by their reactions with water, acids and salt solutions
Evaluation of Hydrogen Production at Refineries in China. The new UOP SeparALL TM Process. Bart Beuckels, UOP NV
Evaluation of Hydrogen Production at Refineries in China The new UOP SeparALL TM Process Bart Beuckels, UOP NV IChemE Gasification Conference March 12, 2014 Rotterdam, the Netherlands 1914-2014 A Century
Decarbonising heat: the potential for steam methane reforming as an enabling technology
Decarbonising heat: the potential for steam methane reforming as an enabling technology Iain Martin, Innovation and Technology Director Johnson Matthey Solving complex problems across the group with world
R. Costa*, G. Schiller, K. A. Friedrich & R.Costa 1, F. Han 1, P. Szabo 1, V. Yurkiv 2, R. Semerad 3, L.Dessemond 4
DLR.de Chart 1 Performances and limitations of metal supported cells with strontium titanate based fuel electrode: a step towards the next generation of solid oxide cells R. Costa*, G. Schiller, K. A.
Amherst. University of Massachusetts Amherst. Yash Sanghai University of Massachusetts Amherst. Masters Theses February 2014
University of Massachusetts Amherst ScholarWorks@UMass Amherst Masters Theses 1911 - February 2014 2013 Techno-Economic Analysis of Hydrogen Fuel Cell Systems Used as an Electricity Storage Technology
Green Ammonia. September 2015
September 2015 Green Ammonia Tim Hughes 1, Ian Wilkinson 1, Edman Tsang 2, Ian McPherson 2, Tim Sudmeier 2, Josh Fellowes 2 Fenglin Liao 2, Simson Wu 2,,Augustin Valera-Medina 3, Sebastian Metz 4 1 Siemens
CO 2 capture processes: Novel approach to benchmarking and evaluation of improvement potentials
Available online at www.sciencedirect.com Energy Procedia 37 (2013 ) 2536 2543 GHGT-11 CO 2 capture processes: Novel approach to benchmarking and evaluation of improvement potentials Rahul Anantharaman
Basic Thermodynamics and System Analysis for Fuel Cells
2 nd Joint European Summer School on Fuel Cell and Hydrogen Technology Crete, 17 th 28 th Sept. 2012 Basic Thermodynamics and System Analysis for Fuel Cells Prof. Dr. Robert Steinberger-Wilckens Centre
Hydrogen and Fuel Cell Technology
Fraunhofer Institute for Solar Energy Systems ISE Hydrogen and Fuel Cell Technology comitted to hydrogen»hydrogen technology and fuel cells are key players in a sustainable, solar energy economy.«dr. Christopher
1/2/2015. Is the size of a population that can be supported indefinitely by the resources of a given ecosystem
Review Video Is the size of a population that can be supported indefinitely by the resources of a given ecosystem Beyond this carrying capacity, no additional individuals of a population can be supported
Renewable hydrogen production. The role of Solar Thermal Water Splitting.
ISRN LUTMDN/TMHP-12/5256-SE ISSN 0282-1990 Renewable hydrogen production. The role of Solar Thermal Water Splitting. Gabriel Vicens Thesis for the Degree of Master of Science Division of Heat Transfer
Numerical Studies of PEM Fuel Cell with Serpentine Flow-Field for Sustainable Energy Use
Numerical Studies of PEM Fuel Cell with Serpentine Flow-Field for Sustainable Energy Use Sang-Hoon Jang 1, GiSoo Shin 1, Hana Hwang 1, Kap-Seung Choi 1, Hyung-Man Kim 1,* 1 Department of Mechanical Engineering
Beer Line Disinfection System
Beer Line Disinfection System Major Functions + Beer Line Disinfection Application + Pub + Club & Bar The World s Most Powerful Natural Disinfectant Ozone kills E.coli approximately 3,000 times faster
Cold Fusion at ENEA Frascati: Progress Report
The Seventh International Conference on Cold Fusion. 1998. Vancouver, Canada:, ENECO, Inc., Salt Lake City, UT. : p. 108. Cold Fusion at ENEA Frascati: Progress Report A. De Ninno. A. Frattolillo, V. Violante,
Properties of aqueous alkaline sodium borohydride solutions and by-products formed during hydrolysis
Properties of aqueous alkaline sodium borohydride solutions and by-products formed during hydrolysis presented at the HYATT REGENCY SAN FRANCISCO AT EMBARCADERO CENTER BOARD ROOM B, ATRIUM LEVEL 5 EMBARCADERO
Effect of Operating Parameter on H2/CO2 Gas Separation using Electrochemical Cell
Effect of Operating Parameter on H2/CO2 Gas Separation using Electrochemical Cell Fung Yun Ru 1, Nurul Noramelya Zulkefli 2, Nur Yusra Mt Yusuf 3 and Mohd Shahbudin Masdar 4,* 1,2,3,4 Department of Chemical
Workshop on Fuel Cells for Automotive Applications
Workshop on Fuel Cells for Automotive Applications A.M. Kannan (amk@asu.edu) Arizona State University Chulalongkorn University December 8, 2016 Thermal Electricity Electrocatalysis for Water Electrolyzer,
APPLICATION OF ALTERNATIVE TECHNOLOGIES IN COMBINATION WITH NUCLEAR ENERGY
Jurij Avsec Urška Novosel ISSN 1333-1124 eissn 1849-1391 APPLICATION OF ALTERNATIVE TECHNOLOGIES IN COMBINATION WITH NUCLEAR ENERGY Summary Studies show that the developed world will need even more energy
Application of the AGF (Anoxic Gas Flotation) Process
Application of the AGF (Anoxic Gas Flotation) Process Dennis A. Burke Environmental Energy Company, 6007 Hill Road NE, Olympia, WA 98516 USA (E-mail: dennis@makingenergy.com http//www.makingenergy.com)
POLLUTION FROM MOTOR VEHICLES
POLLUTION FROM MOTOR VEHICLES Urgency of development of environment-friendly, cleaner system for road transport: A. Introduction: Pollution from motor vehicle is the single largest source of air pollution
GASOLINE FROM NATURAL GAS BY SULFUR PROCESSING
GASOLINE FROM NATURAL GAS BY SULFUR PROCESSING BY Erek J. Erekson R. Gopalakrishnan January 1996 Work Performed Under Contract No.: DE-AC22-93PC92114 For U.S. Department of Energy Pittsburgh Energy Technology
Ammonia-based Fertilizer Markets Are Fertilizers Petrochemicals too?
Ammonia-based Fertilizer Markets Are Fertilizers Petrochemicals too? Bala Suresh, Principal Analyst 15 th FORO PEMEX Petroquimica, 2013 Mexico City, Mexico June 5, 2013 bala.suresh@ihs.com Agenda What
Hydrogen Technologies Facts and Myths David L. Block
Hydrogen Technologies Facts and Myths David L. Block Good morning ladies and gentlemen. I wish to give my thanks to ASES for allowing me the privilege to address all of you at this year s most exciting
Sustainable Energy Mod.1: Fuel Cells & Distributed Generation Systems
Sustainable Energy Mod.1: Fuel Cells & Distributed Generation Systems Dr. Ing. Mario L. Ferrari Thermochemical Power Group (TPG) - DiMSET University of Genoa, Italy : fuel cell systems (fuel processing)