Craig Datko Stephen Kenas Felix Aronovich Monica Esopi Project 2 EDSGN 100 Fall 2010 Group 4.

Slides:



Advertisements
Similar presentations
Air Conditioning System
Advertisements

Sponsored By GE Team 3 Kwan Hee Lee Sean Munck Paul Pfeiffenberger NO GRID TELECOM BASE STATION ENERGY STORAGE SYSTEM.
Design Team 5: Jay Martinson Brian Bernens Tyler Gordon Dan Krohnemann.
DESIGN PROJECT 2: Cell Phone Tower in Chad, Africa By: Joel Shulman Chad Rosenzweig Devin Sheldon Christian Haefner Engineering Design 100 Section 016.
GE-Sponsored Project Logan Adams Matt Blumberg Pat Mangan Tom Kaley 06/solar13.jpg.
Climate & Unit 1. Vocabulary Weather Atmosphere Climate Precipitations Wind Meteorologist Anemometer Wind vane.
TELECOMMUNICATIONS APPLICATION OF THE DURATHON BATTERY EDSGN 100 Team #4 Gerek Whitman Ross Marks Ryan Capo Alvaro Oviedo.
Power Electronics Lecture-1 Introduction Dr. Imtiaz Hussain
Telecom Base Station Team 4 Anthony Grkman, Gregory Hartmann, Chris Rodriguez, Chloe Koubek, Damilola Okanlawon.
Photovoltaic Solar Cells and Solar Energy Systems for Home Usages Mohammad Anisuzzaman.
© ABB SG_Presentation_rev9b.ppt | 1 © ABB SG_Presentation_rev9b.ppt | 1 Smart Grid – The evolution of the future grid Karl Elfstadius,
Team 4 By: Rhian Kogan Anthony Mistretta Akshit Kurani.
Team 3: Katie Plain Karla Chuljak Andrew Liacopoulos Kody G’Danitz.
Team Five was approached by GE with the dilemma of providing a reliable cellular phone service to areas with unreliable electric grids, while maintaining.
The League of Extraordinary Engineers Dominick D’Angelo Scott Whiteman Jason Ellis.
A PRESENTATION ON SOLAR WIND HYBRID SYSTEM BY. BACKGROUND For remote and inhospitable areas – Reliable Electricity supply is not available.
Collin Russo David Tawadras Brian Johnson Engineering Design 100.
Solar Power EDSGN 100 Sec. 13 Design Team 1 Kyle Feaster Alex Shivetts Kait Levin.
Confidential & Proprietary. What happens when Wind /Solar do not meet requirements? What next?
SOLAR POWER SOLUTION FOR TELECOM APPLICATIONS
Sustainable Energy Systems Engineering Peter Gevorkian Ch 2: Solar Power Generation Design Brevard Community College EST1830 Bruce Hesher.
Hybrid Wind and Solar Generation System MAY Team: Daoxi Sun, Riley O'Connor, Trevor Webb, Shihao Ni, Xiaokai Sun, Ben Ryan Advisor, Client: Venkataramana.
Energy to Educate Craig Hammond Stephanie Sheppard Kyle Tress Justin Valenti Presented to: OPP EDSGN 100 8/8/11.
1 POWER MANAGEMENT FOR SUSTAINABLE ENERGY SYSTEMS Graham Town Electronic Engineering Macquarie University.
The Solar Resource The Hydro Resource and Micro Hydroelectricity Systems.
Performance modeling of a hybrid Diesel generator-Battery hybrid system Central University of Technology Energy Postgraduate Conference 2013.
Hybrid Wind & Solar Generation Project
Alex Engler, Andrew Sarcinello, & Zach Mitchell EDSGN : Intro. to Engineering Design Fall 2010 Client – Driven Design Project The Pennsylvania State.
Term 4.
Small Wind Electric Systems Wind Turbine Electrical Output – Electricity from a spinning shaft Balance of Systems – Types – Components.
No Grid Telecom Base Station Energy Storage System GE sponsored EDSGN 100 Section 018 Prof. Andy Lau Team Taste-E Fall Semester 2010 Brady Alford
Sai Moorty ERCOT Integration Options into ERCOT systems.
Renewable Energy DDP. Solar Energy The Sun produces radiant energy by consuming hydrogen in nuclear fusion reactions. Solar energy is transmitted to the.
Robert Simon, Coleman Hostetler, Aashay Sukhthankar, Devin Moore.
Charles Lindgren Fall  The purpose of this project is to investigate the utilization of solar cells to provide power for an automobile’s onboard.
Link Building PV project By: Culver Matt Labaume Natasha Narnio Guillaume Roux Arnaud Stanton Andrew Thompson Matt Troyano Joana ENS Renewable.
Wind Wind Power “Research shows that wind power could theoretically produce over 100 times the region’s current demand for electricity.”
The Pennsylvania State University.  Positioning Statement  What we want to do and how we’re going to to it  Needs Analysis  What we think our country.
James Marvin E-Design 100 Matt Quaglia Section 13 Daniel Rieman Alan Wisniewski.
Gage Hermanson Ashlea Krupa Tyler Brun Seung Ho Park.
Christian Poluch, Dillon Gearing, Annie Graszl Group 7.
A BLUSTERY SUNNY DAY. HYPOTHESIS The Louisiana State University’s campus can be solely powered by a combination of wind and solar power.
Electricity Industry Innovation Challenges Woodrow Wilson Cross-Border Forum on Energy Issues 8 March 2007 Washington, DC Stan Rosinski Program Manager.
Fearghal Kineavy 4 th Energy Systems Engineering – Electrical Stream Department of Electrical and Electronic Engineering, NUIG Supervisor: Dr Maeve Duffy.
No Grid Base Station Team 3 JC Morrow Bryghton Rogosky Zarina Jakipbayeva Harshad Fatehpuria.
Wind Turbine Project Plan (Dec08-04) ‏ Lindsay Short Nick Ries Luke Donney Dario Vazquez Chris Loots Advisor: Dr. Ajjarapu Client: Dr. Aliprantis.
Electrical Circuits Bobbi Martin, Las Vegas, NV. What is electricity?  It is a form of energy that is created from the movement of electrons of atoms.
Team Seven: Fanny Wu Sam deVries Bharadwaj Mathukumilli Chris Cioffi Sponsored by GE.
By: Chris Hickey, Ian Antolik, Raimondo DeVincentis.
Renewable sources of energy
EDSGN 100 SECTION 18 PROF. ANDY LAU (JS) 2 DECEMBER 9, 2010 No Grid Telecom Base Station Energy Storage System GE Transportation NAKURU.
FUTURE CITY PROJECT Distribution and Use of Energy Mark Casto/ Program Staff EMBHSSC
1. INTRODUCTION 2. CONCENTRATED SOLAR POWER 3. PARABOLIC TROUGH 4. SOLAR PANELS 5. PHOTOVOLTAICS 6. PV SYSTEM 7. ADVANTAGES & DISADVANTAGES 8. STORAGE.
Designed by: Nathaniel Lageman Colin Kreft Jerry Lynch Benjamin Sepe EDSGN GE TRANSPORTATION: OFF-GRID TELECOM BASE STATION.
Alternative Energy House Mr. Gillespie’s Version.
POWER GENERATION  Solar energy is the best sustainable energy solution in Malaysia.  Malaysia’s equatorial climate provides fairly strong viability and.
IP d.c. devices © Oxford University Press 2011 d.c. devices.
Power Generation Wind Power. Wind Power Wind turbine power has been around since 500 BC when the Persians used them for grain-grinding and water pumps.
Powertech Labs Allan Grant Joe Wong 2008 NHA Conference April 1, 2008 Hydrogen, Renewables and a Smartgrid - The HARP Project in British Columbia.
Presentation on. Presented by  The current which flows in only one direction is called DC current  Direct current is produced by such sources as batteries,
Design Project 2 Yu Peng Joe Tom bellal.
Determining the optimal placements of renewable power generation systems using regional geographic information system Prof. Tyagunov M. G. , PhD Zay Yar.
POWER MANAGEMENT FOR SUSTAINABLE ENERGY SYSTEMS
How does solar energy work?
How is Electricity generated in power plants?
Electric Current.
Battery Storage, Reducing Fuel Poverty, Increase in Self Consumption and Integration into Low Cost Tariffs St John Bickley.
Research Team at IIT Madras
THE STUDY OF SOLAR-WIND HYBRID SYSTEM PH301 RENEWABLE ENERGY
PLTW Terms PLTW Vocabulary Set #9.
Presentation transcript:

Craig Datko Stephen Kenas Felix Aronovich Monica Esopi Project 2 EDSGN 100 Fall 2010 Group 4

Definition of Needs and Requirements Third world country without reliable power grid Self sustainable/ green power Minimal cost with maximum effectiveness Overall positive social implications on region Integrated system Project Requirements Country Climate/ Topography Need for Cell Phone Base Tower Energy Required Base Station Load Additional Load Functional Components Hut Equipment Alternative Energy Source NaMX Battery Integrated System Costs Initial Yearly Cycle Times/System Diagram Component Sizes/Operating Speeds Social Implications Impact

Initial Cost: $21,000 Minimal maintenance required 2.5 kW/hr Life Expectancy: 25+ Niger – Extremely sunny Solar Initial Cost: $8,060 Maintenance: $2,000/yr 2.5 kW/hr Life Expectancy: 20+ Nicaragua – Windy – Extreme seasonal changes Wind Initial Cost: $10,000 Maintenance: $1,300/yr 2.5 kW/hr Long Life Expectancy Zambia – Fast flowing rivers – Dramatic seasonal changes Hydro Initial Cost: $2,000 Minimal maintenance required 7 kW/hr Long life expectancy Mali – Short rainy season – Cool/hot dry season Magnetic Generator Preliminary Conceptual Options

CountryNicaragua Windy; Dry/Rainy Seasons Third World Country Niger Extremely Sunny; Little/No Precipitation Third World Country Mali Third World Country Short Rainy Season; Cool/Hot Dry Season Zambia Fast Flowing Rivers; Dry/Rainy Seasons Third World Country Country Details

Criteria/RequirementsWeight FactorSolarHydroWindMagnetic Location Power Load Needs00000 Power Sources & Storage Optimal Hybrid Operation Social Effects Total Winner!!! Concept Option Analysis/ Selection

Hut High Temperature Modified Atmosphere Oven AC Loads (Air Conditioning, Dehumidifier) NaMX Battery Charge Controller DC to AC Converter DC Loads (Telecom Equipment) Solar Panels Backup Generator Desert (Dry, Extreme sun/heat) Energy Flow and Storage

Energy Required 1.2 kW load Potential Additional Heater1.0 kWDehumidifier0.035 kW Air Conditioner 0.9 kW Social Implications Improve Communication BusinessPersonalEnvironmental Functional Components Alternative Energy Source SolarWindHydro Magnetic Generator NaMX BatteryHeaterHut Equipment Air Conditioner Dehumidifier Integrated System Costs (15 years)Solar$21,000Wind$38,600 Magnetic Generator $2000Hydro$29,440 Component Sizes/Operating Speeds Cycle Times/System Diagram Design Parameters

Shown Below: Hut with Solar Panels 16 ˚ angle 70 panels (3500 W needed / 50 W per panel) 2 sq ft each Tower Cellular signal Solidworks Specifications

Third world country without reliable power grid Self sustainable/ green power Minimal cost with maximum effectiveness Overall positive social implications on region Integrated system Final Concept Proposal