632773 Perovskite Cubic Structure Perovskites have a wide range of application in technology, especially in solid-state ionics. Perovskites are currently.

Slides:



Advertisements
Similar presentations
High Efficiency Thin Film Solar Cells
Advertisements

Dye-sensitised Solar Cells NVSES Nanotechnology 2014.
By: Philip, Thomas, and Isabel
Graphene & Nanowires: Applications Kevin Babb & Petar Petrov Physics 141A Presentation March 5, 2013.
Mesoscopic phase modulations in complex materials Sang-W Cheong, Rutgers University NSF-DMR Intriguing cross-coupling phenomena in multiferroics.
Jordan University of Science and Technology Department of applied Physics Solar cells [Operation principles and testing] Advisor: Dr. Adnan Shariah Ghassan.
Advanced Higher Chemistry
Halliday/Resnick/Walker Fundamentals of Physics 8th edition
Thin Film Photovoltaics By Justin Hibbard. What is a thin film photovoltaic? Thin film voltaics are materials that have a light absorbing thickness that.
Applications. Until very recently silicate glasses were the only type of materials commonly used. Until very recently silicate glasses were the only type.
The effects of global pollution on solar power efficiency Tom Hanley April 19, 2004.

Increasing desire for renewable energy sources has led to the rapid growth and development of photovoltaic (PV) technologies within the last few decades.
Jacob Rossi. Conversion of sunlight into electricity via the Photovoltaic Effect.
P HOTOVOLTAIC C ELLS Parth Bhide. What is a Photovoltaic Cell? How do Photovoltaic Cells Work? Why are Photovoltaic Cells not 100% Efficient? What Technologies.
SOLAR CELL PRESENTED BY ANJALI PATRA ANKITA TRIPATHY BRANCH-EEE.
Lecture 6: Photovoltaics Fundamentals
H OW EFFICIENT MODERN SOLAR CELLS WORK. Yuichi Irisawa.
Topic 3: Information Systems Technology Organic Electronics Dan Ru ISYM-540-P 07/16/2009.
Science and Technology of Nano Materials
Powered Paint: Nanotech Solar Ink Brian A. Korgel Department of Chemical Engineering, Texas Materials Institute, Center for Nano- and Molecular Science.
Solar Energy - Photovoltaics UTI-111 Prof. Park Essex County College.
Şükran GÜR Yelda ÇİFLİK.  Organic photovoltaic cells convert solar into electric energy is probably the most interesting research challenge nowadays.
Growth and Analysis of MOCVD Grown Crystalline GaAs Andrew Howard, Dr. S. Phillip Ahrenkiel SDSM&T Nanoscience Department NSF REU Grant # Objectives.
Presented to: Presented by:
THE CHALLENGE OF PV TECHNOLOGIES Thomas Berger Wenzel Fiala Hannes List.
The Future of Power Fuel Cells. What are Fuel Cells? Electrochemical conversion device A fuel cell a battery that does not need recharging. Batteries.
Prepared by:. Solar photovoltaics (PVs) are arrays of cells containing a material that converts solar radiation into direct current electricity. Materials.
Other Ionic Structures. Perovskite:“ABO 3 ” B-site BO 6 octahedra A-site 12 Oxygen neighbors For perfect cube: A-O/B-O = √2 “Goldschmidt tolerance factor”
Organic Electronics Presented By: Mehrdad Najibi Class Presentation for Advanced VLSI Course.
Wind Distribution 1. Off-shore Wind distribution 2.
(M): No Class (Memorial Day) 5.27 (W): Energy and Nanotechnology 5.28 (Th): LAB: Solar Cell (M): Project Presentations 6.03 (W): LAB: Antimicrobial.
References Toward cost-effective solar energy use Science, v 315, n 5813, 9 Feb. 2007, p Nanostructures for photovoltaics Materials Science and.
Photovoltaic By: Matheiu Alexandre Aaron Burrell Sam Didinsky Michael Mauri.
Solar Energy By: Kyle McPhail. Facts Solar energy is radiant light and heat from the sun Every hour the sun beams down enough energy to power to planet.
Solar Energy - Photovoltaics UTI-111 Prof. Park Essex County College.
Graphene The theory of graphene was first put forth in 1947 by P.R. Wallace, but it was not until 2004 that graphene was produced in an observable and.
The Adaptation of Perovskite Compounds in Photovoltaics Matt Weiss | Will Humble University of Pittsburgh SSOE SOLAR NECESSITY EFFICIENCY A SUSTAINABLE.
Sustainability Solar Power Sustainability Solar power.
  By:Layan 5C Solar Energy   Solar energy is a form of energy from the sun What Is Solar Energy?
ELECTRIC CURRENT.. What is electric current ? Electric current is caused due to the flow or movement of electric charges. The flow of electric charges.
ELECTRICITY AND MAGNETISM G9 ALPHA and DELTA – 2011 Mr. ARNOLD, R.
1© Manhattan Press (H.K.) Ltd Factors affecting resistance of a conductor Physical dimension Material Effect of temperature on resistance.
Presented by:- Nayanee Singh B.Tech(E.C.), 5 th sem Roll no: Banasthali University Rajasthan.
Solar energy Bright days for Solar
THE ENERGY CONNECTION Topic 4. Energy The scientific definition of energy is: – the ability to do work. – Work: the ability to exert force and cause change.
INFRARED PLASTIC SOLAR CELL.
1 Tandem and thin-film solar cells LECTURE 22 Si sliver cells tandem junction solar cells CIGS as a promising solar absorber CIGS solar cells heterojunction.
LECTURE 2. Magnetic bubble Memory  It is a tiny movable magnetized cylindrical volume in a thin magnetic material that along with other like volumes.
Solar cell technology ‘ We are on the cusp of a new era of Energy Independence ‘
Paolo Enrico de Falco  Solar panel electricity cost about 25 cents kilowatt-hour ( the average cost of electricity in the USA is 10 cents per.
Suntech STP200 Making Light Work of Energy Student Number:
Eleni Ntavli ©G24i.  Developer: chemistry professor Michael Gratzel, Federal Polytechnic School, Switzerland,  Operation: Between glass.
MTLE Energy, Environment and Economy Ziyu (Grace) Zhou
PHOTOVOLTAIC ENERGY PHOTOVOLTAIC ENERGY Okan GÜVERCİN Mahmut YALÇIN
CHARGE AND LOAD PROTECTION IN SOLAR POWER MANAGEMENT
Solar Energy Improvement Techniques
12.3 Portable Sources of Electrical Energy: Electric Cells
PHOTOVOLTAIC ENERGY PHOTOVOLTAIC ENERGY Okan GÜVERCİN Mahmut YALÇIN
Utilization of solar energy For power generation in Nigeria
Modern Materials and Products
ENERGY MATERIALS Course Announcement
12.3 Portable Sources of Electrical Energy: Electric Cells
Solar Energy.
…And Men With Funny Hats. …Superconductors… …Semiconductors…
Rhetorical Situation Audience: People interested in renewable energy; primarily, innovators and investors from energy corporations. Purpose:
SOLAR POWER CHARGE CONTROLLER
11.3 A Sustainable Energy Future
12.3 Portable Sources of Electrical Energy: Electric Cells
Presentation transcript:

Perovskite Cubic Structure Perovskites have a wide range of application in technology, especially in solid-state ionics. Perovskites are currently used in sensors, memory devices(RAM), amplifier, fuel cells, superconductors and electroptical devices. Perovskites is opening up an entirely new field of applications, they are changing our world now. Property Perovskite materials exhibit many interesting and intriguing properties from both the theoretical and the application point of view. Colossal magnetoresistance, ferroelectricity, superconductivity, charge ordering, spin dependent transport, high thermopower and the interplay of structural, magnetic and transport properties are commonly observed features in this family. These compounds are used as sensors and catalyst electrodes in certain types of fuel cells and are candidates for memory devices and spintronics applications. Many superconducting ceramic materials (the high temperature superconductors) have perovskite-like structures as well. Changing our current or future life ? -Photovoltaic Perovskite have long been of interest for their superconducting and ferroelectric properties. But, in recent years, it was discovered that they are also remarkably efficient at absorbing photons of the lights and that this can be converted into an electric current in photovoltaic solar cells.

References : 1. Structure: Perovskite (CaTiO3). (n.d.). Retrieved from O3) 2. Superconducting and ferroelectric properties of perovskite. (2014, Jun 27). Retrieved from ferroelectric-properties-perovskite.html 3. Perovskite (structure). (n.d.). Retrieved from 4. Perovskite can boost solar cell performance by 20%. (2014, Sept 27). Retrieved from performance-boosts-by-20-percent 5. Ucilia, W. (2014, Sept 28). Perovskite Offers Shot at Cheaper Solar Energy. Retrieved from at-cheaper-solar-energy April, G. (2014, Aug 12). Perovskite materials lead to better LEDs, possibly advance flat-panel displays. Retrieved from 7. Richard, V. N (2014, Sept 24). Cheap solar cells tempt businesses. Retrieved from businesses Cheap and Efficiency Compared with other materials : -Commercial silicon modules convert 17–25% of solar radiation into electricity, and much smaller perovskite cells have already reached a widely reproduced rate of 16–18% in the lab. - Perovskite is increasing from 3.8% in 2009 to over 19% by the end of 2014 – four relatively short years, and silicon is always keeping the rate of 25% in past 20 years. Perovskite materials are the newest contender for breaking the silicon ceiling in solar cell technology. Good for this materials: Cheap manufacturing- it is about five times cheaper than current thin-film solar cells. High efficiency photovoltaics and excellent charge carrier transport- perovskite as the absorbing layer can have solar to electrical power conversion efficiencies of over 17 percent. And the data is continuously improving. perovskite can be made of common metals and industrial chemicals, instead of the expensive raw materials used in other silicon substitutes. Also, perovskite-based materials could be used to print photovoltaic electronics directly onto glass or other materials, which would be cheaper than more-complex methods for producing thin-film solar cells. The biggest challenge facing perovskite solar cells is long-term stability in a wide range of environments. Figure 2. Efficiency of solar cells