Estimates of hydrogen production potential from renewable resources in Algeria Soumia Rahmounia*, Noureddine Settoua, Belkhir Negroua, Abderrahmane Gouarehb.

Slides:



Advertisements
Similar presentations
Grenada Sustainable Energy Plan Stakeholders Meeting April 5, 2002.
Advertisements

An Introduction ppt - Saurabh Mehta
Hawaii: 2020 Presented by Alex Waegel for Team Cake B.
Said Chehab ALMEE Ramses Amman Workshop June 2010 Enhancement of Energy Efficiency Policies and Renewable Energy Sources in the Mediterranean region, a.
Wind Resource Assessment
Environmental aspects of using alternative fuels and biofuels Vladimír Vlk Adviser for sustainable energy and transport 13 th – 14 th October 2011 Prague,
By: Isaiah Canlas and Max Tchen. Advantages/ Disadvanages Advantages  No harmful emissions  Environment friendly  Renewable  Fuel efficient Disadvantages.
Dr. Kamal Kant Dwivedi Counselor (S&T) Embassy of India Washington DC,
Feasibility Study of Harnessing Onshore Wave Energy at Waipapa
Gas Statistics in Myanmar 24~26 September,2012 Beijing,China International Workshop on Energy Statistics Presented by Tin Zaw Myint Deputy Director Energy.
Universidad de Sonora. SOLAR ATLAS OF MEXICO It was until 2007 when mexico started with this ambitious proyect our own solas atlas beacuse of the.
STRATEGIES FOR PROMOTION OF ENERGY EFFICIENT AND CLEANER TECHNOLOGIES IN THE POWER SECTOR Synthesis Report Issue 1: Implications of Carbon & Energy Taxes.
They’re GRRRRRRREAT! Tiffany Greider Jeff Woods Alaina Pomeroy Shannon Payton Robert Jones Katherine Costello.
Solar Energy: Location Is Everything? Scott Peterson Environmental Engineering Texas A&M Increasing population and decreasing fossil fuel reserves require.
Energy Energy- the capacity to do work –Work- force through a distance Joule- amount of work done –4 Joules = 1 calorie –Calorie- energy to heat 1 g of.
Sustainable Energy Francisco Chavez. Period: 6S. Introduction Major Renewable Energy Sources Solar Energy Geothermal Energy Wind Energy Tidal Energy Wave.
Method of Stating Energy Consumption Life-cycle analysis for EV energy consumption results.
1 MET 12 Global Warming: Lecture 12 Transportation Shaun Tanner Outline:   Energy use   Petroleum   Hybrid   Electric   Fuel Cell   Biofuels.
CAPABILITY OF INCREASING ENERGY EFFICIENCY IN EU HOUSING Nataliya Anisimova Czech Technical University in Prague
Wind and Other Renewable Energy Sources Physics 1303.
Institute for Lifecycle Environmental Assessment Energy and Land Use Impacts of Sustainable Transportation Scenarios Boyd H. Pro University.
Opportunities and Constraints on Possible Options for Transport Sector CDM Projects – Brazilian Case Studies Suzana Kahn Ribeiro Importance of Transport.
The system will output the following: Our analysis concluded that the average breakeven point for a given fire department installing solar panels on its.
October 12, 1999: 6 billion! Now doubling every 61 years.
Managing Operational Energy in Buildings
Southern Taiwan University Department of Electrical engineering
SOLAR ENERGY IN BUILDINGS ARE 440 Lecture by: Sabeer Hamid Architectural Engineering Department Lecture by: Sabeer Hamid Architectural Engineering Department.
Alternative Energy Sources Wiki Project Kevin Boyle, Mark Fraser.
Affordable, Clean, Local Plug-in Partners Campaign Plug-in, Flexible Fuel, Hybrid Electric Vehicle.
Michael B McElroy School of Engineering and Applied Sciences Harvard University May 21, 2008 Renewable Energy and Beyond.
Combined Heat and Power in Copenhagen Copenhagen’s CHP system supplies 97% of the city with clean, reliable and affordable heating and 15% of Denmark’s.
ENERGY RESOURCES: PREDICTIONS AND ALTERNATIVES Kristin Clark ENERGY RESOURCES: PREDICTIONS AND ALTERNATIVES Kristin Clark.
Resource Analysis. Objectives of Resource Assessment Discussion The subject of the second part of the analysis is to dig more deeply into some of the.
ANAS Institute of Radiation problems İ.Mustafayev, H.Mahmudov, Sadig Hasanov Beiging, 18 november 2015 Environmental safety of road transport.
Science A Physics – P1 Science A Physics – P1 Topic 1: Electricity Generation - 3 Topic 1: Electricity Generation - 3.
Energy Futures A look BACK at and a look FORWARD to, “ENERGY use in WISCONSIN”
Meryem TAHRI Ph.D Student Laboratory of Applied Geology, Geomatic and Environnement Faculty of Science Ben M’sik, University Hassan II – Casablanca, Morocco.
Energy Demand Analysis and Energy Saving Potentials in the Greek Road Transport Sector Dr. Spyros J. Kiartzis Director Alternative Energy Sources & New.
Integration.
Princeton University CMI: The idea of Stabilization Wedges
Renewable energy is generally defined as energy that is collected from resources which are naturally replenished on a human timescale, such as sunlight,
Renewable Energy Reduces Greenhouse Gas Emission and Climate Change
Option C Energy.
Betül Özer, Erdem Görgün, Selahattin İncecik
Petroleum sector in Turkey Petroleum Engineering 2017
Gestão de Energia: 2016/17 Energy Analysis: Process Analysis (cont.)
S. Rahmouni*, N. Settou, B. Negrou, N. Chennouf, R. Ghedamsi
Load and Power production production
Historical Emissions Billions of Tons Carbon Emitted per Year 16
Assessment of wind power resource in Belgrade region
Tracking fossil fuel subsidies in APEC economies
Nonrenewable Energy Resources
Determining the optimal placements of renewable power generation systems using regional geographic information system Prof. Tyagunov M. G. , PhD Zay Yar.
Module 39 Solar, Wind, Geothermal, and Hydrogen
Data management: 10 minute data, 8760 hours Data Q/C, error checking
Namibia Population of some 2 million people
Renewable Energy Systems
Renewable energy is generally defined as energy that is collected from resources which are naturally replenished on a human timescale, such as sunlight,
Renewable energy – smart solutions bring economic and social dividends
Renewable and Non Renewable Energy Sources
NET-ZERO-ENERGY (NZE) WASTEWATER TREATMENT PLANTS (WWTPs)
Energy in Denmark 2014 Danish Energy Agency.
Opportunities for Hydrogen-Based Energy Storage for Electric Utilities
Understanding Updates to the EPA Inventory of Greenhouse Gas Emissions from Natural Gas Systems Richard Meyer Managing Director, Energy Analysis August.
City Council April 30, 2018 Item 13
Energy Efficiency and Renewables role in the future energy needs
Chapter Energy Resources.
THE STUDY OF SOLAR-WIND HYBRID SYSTEM PH301 RENEWABLE ENERGY
Renewable Energy.
The Potential of Renewable Energy in Libya
Presentation transcript:

Estimates of hydrogen production potential from renewable resources in Algeria Soumia Rahmounia*, Noureddine Settoua, Belkhir Negroua, Abderrahmane Gouarehb a Univ Ouargla, Fac. Applied sciences, Dept. Mechanical Engineering, Lab. Promotion et valorisation des ressources sahariennes (VPRS) BP 511, Route de Ghardaïa,Ouargla, 30000, Algeria bUniv Sidi Bel Abbes,Fac. Technology, Dept. Mechanical Engineering, Lab. Matériaux et Systèmes Réactifs (LMSR) BP89, Sidi Bel Abbes, 22000, Algeria Abstract Wind hydrogen Solar hydrogen This study was conducted to estimate the potential for producing hydrogen from renewable resources (solar and wind energy) in Algeria and to create maps that allow the reader to easily visualize the results. To accomplish this objective, we analyzed renewable resource data both statistically and graphically utilizing Geographic Information System (GIS), a computer-based information system used to create and visualize geographic information. The study will evaluate the availability of hydrogen production potential from these key renewable resources in Algeria. Wind hydrogen is essentially the generation of hydrogen by electrolysis where in the electricity supplied is derived from wind turbines. Fig. 4 shows the map of annual potential for hydrogen production from wind energy, averaged over the area of each region. The turbine model considered was of 1.5 MW nominal power. To calculate the wind energy produced by the selected turbine at a given site, the Weibull distribution corresponding to this site was integrated along with the capacity curve of this wind generator . Fig. 3 shows the map of hydrogen potential from solar energy. We consider monocristallin photovoltaic panels of 250 W rated power, with surface of 1.63 m² and an efficiency of 15.28%. For all the results that follow, the unit of hydrogen potential is tons of H2/km²/year. 1 Methodology to assess the available renewable resources potential Solar resource analysis The solar irradiation map can be obtained from Solar-Med-Atlas satellite image, it is useful to have data of each region in the study area. Using these data, the annual mean values of daily global radiation are determined on the horizontal surface. In our work we arranged the annual average of annual solar irradiation expressed in kWh/m²/year, presented with GIS map on the Fig. 1. Fig. 3 : Hydrogen potential from solar Fig. 4 : Hydrogen potential from wind 3. Potential for hydrogen production relative to fuel consumption for road transportation sector in Algeria Fig. 1: Annual average of the global horizontal solar irradiation in Algeria Wind resource analysis The wind speed measurements as derived from the were obtained from the Algerian Meteorological National Office are pieces of single point information at each measurement station. The present study is based on a average daily wind speed measured at a height of 10 m above ground level from 63 measurement stations distributed over Algerian territory. The data were collected during the period 2001-2010 with different collection periods for each site and used to evaluate the annual frequency of wind speed and annual variations of the average wind speed. After this, wind speeds were interpolated with the IDW. The wind speed data and the locations of 63 stations which were chosen to cover the whole area of the country are shown in Fig. 2. Fig.5 : Development of the Algerian road fleet size per year of matriculation. In terms of consumption by fuel type, the road sector diesel, gasoline and liquefied petroleum gas (LPG) fuel consumption (k tons of oil equivalent) in Algeria was last measured at 8644, 3615 and 377, respectively in 2012, according to Ministry of Energy . We assumed that 40% of the total Algerian land areas are occupied. We took into account that the effective area used by photovoltaic panels was 3% of the total suitable land. We assumed 5 MW of wind turbines could be installed on each square kilometer. The overall annual potential of 6.85 billion tons of solar hydrogen and 6.13 billion tons of wind hydrogen. As 1 kg of hydrogen is roughly equivalent to a gallon of gasoline in energy content, 3768 times gasoline consumption in Algeria can be met using hydrogen produced from solar and wind energy. The global fossil fuel combustion-related CO2 emissions in the road transportation is about 39.29 million tons of CO2 per year (MtCO2/year) emitted into the atmosphere (27.2, 11.08 and 1.01 MtCO2 resulted from the combustion of diesel, gasoline and LPG, respectively. Taking into account that 1 ktep of diesel, gasoline and LPG produce 3150, 3066 and 2688 kg of CO2 after combustion) can be considered as environmental savings. Fig. 2 : Annual average of wind speed at 10m above ground level in Algeria. 2. Hydrogen potential from renewable energy Solar and wind energy can be harnessed to provide clean electricity to hydrogen-generating electrolyzers. Once the potential for the annual mean of the available solar and wind energy is assess using renewable resources databases within the specific location, the technical potential of the annual hydrogen production from this renewable resources can be estimated using the following equation: 4. Conclusion This paper estimates the quantity of hydrogen that could be produced from solar and wind energy by region in Algeria. The study estimates that more than 13 billion tons of hydrogen can be produced from solar and wind per year in the country. Algeria consumed about 3.45 billion gallons of gasoline in 2012, equivalent to 3.45 Mt of renewable hydrogen; therefore, using only a 0.056% of land suitable for renewable projects can be meet this amount of hydrogen and can be reduce 39.2 Mt of CO2 emitted into the atmosphere.