20.03.2015 Views

Solar & Photovoltaics Engineering Research Center - Saudi Solar ...

Solar & Photovoltaics Engineering Research Center - Saudi Solar ...

Solar & Photovoltaics Engineering Research Center - Saudi Solar ...

SHOW MORE
SHOW LESS

Create successful ePaper yourself

Turn your PDF publications into a flip-book with our unique Google optimized e-Paper software.

<strong>Solar</strong> & <strong>Photovoltaics</strong><br />

<strong>Engineering</strong> <strong>Research</strong> <strong>Center</strong><br />

Ghassan E. Jabbour, SPIE Fellow, EOS Fellow<br />

Director<br />

Rawabi Holdings Endowed <strong>Research</strong> Chair in <strong>Solar</strong> and Voltaics,<br />

Named Professor<br />

King Abdullah University of Science and Technology


<strong>Center</strong> Mission<br />

‣ To become a leading institute in renewable energy science and engineering.<br />

‣ To provide foundational innovations to enable efficient and low-cost disruptive<br />

solar cell and sustainable energy technologies.<br />

‣ To be the catalyst for Kingdom-wide initiatives in solar and renewable energy<br />

technology adoption.<br />

Present<br />

123rf.com<br />

VTT<br />

Future: Roll-to-Roll Printing<br />

123rf.com


<strong>Center</strong> Mission and Outreach Activities<br />

To be Ambassadors of Excellence in Renewable Energy Science and Technology<br />

<strong>Solar</strong> & <strong>Photovoltaics</strong> <strong>Engineering</strong> <strong>Research</strong> <strong>Center</strong><br />

Joint research<br />

with KAUST partners<br />

<strong>Research</strong>er<br />

exchange program<br />

Expand research network<br />

Organize international<br />

conferences<br />

Enhance local<br />

student participation<br />

Accelerate<br />

acceptance of solar<br />

technology<br />

Interdisciplinary approach<br />

to basic energy science<br />

and engineering<br />

MS Degree in Energy<br />

Science and<br />

<strong>Engineering</strong><br />

Entrepreneurship<br />

and key<br />

IP sustainability<br />

Alternative energy sci. advisor<br />

to the Kingdom<br />

Publish in top<br />

ranked journals<br />

Education<br />

in IP principles<br />

Active engagement<br />

with industry<br />

Cultivate<br />

spin-offs/startups<br />

Continuing<br />

education courses<br />

Workshops<br />

for decision makers


Flagship


<strong>Center</strong> R&D<br />

CIGS and CXYS <strong>Solar</strong> Cells<br />

(Goal: PCE > 20%)<br />

Amorphous, Nanosilicon and Quantum Dots<br />

<strong>Solar</strong> Cells (Goal: PCE > 10%)<br />

Optical Coatings and Photon Management Designs for<br />

Optimized solar cell performance including. Thermal <strong>Solar</strong><br />

Small Molecule and Polymeric <strong>Solar</strong> Cells (Goal: PCE > 10%)<br />

Energy Storage, Harvesting, and Fuel Cells<br />

Testing and Characterization


What Does it Take?


Level 0: Lab Space<br />

KAUST<br />

Discover and optimize new materials an device structures using<br />

traditional and high throughput approaches


Level 3: North Neighborhood<br />

KAUST<br />

Synthesize the new materials and fabricate optimized devices using<br />

solution based processing including low cost approaches such as PRINTING!


Level 3: South Neighborhood<br />

KAUST<br />

Characterize materials, thin film layers, and devices.


Ultrafast Laser Spectroscopy and Imaging<br />

Laboratory<br />

1<br />

4<br />

2<br />

5<br />

6<br />

3<br />

7


Ultrafast Laser Spectroscopy and Imaging<br />

Laboratory<br />

Femtosecond spectroscopy and<br />

material processing room equipped<br />

with femtosecond regenerative and<br />

parametric amplifiers. Laser system<br />

produces high energy, ultrashort


Ultrafast Laser Spectroscopy and Imaging<br />

Laboratory<br />

Ultrahigh resolution Optical Coherence Tomography (UHR-OCT) room equipped with femtosecond<br />

oscillator producing 70fs pulses tunable in NIR range for supercontinuum generation. UHR-OCT is a fast,<br />

sub-micron resolution method to acquire 3D structural data of semitransparent multilayer structures<br />

like flexible solar cells. Method is fast enough to be applied in monitoring the printing quality in R2Rmanufacturing<br />

of flexible electronics. Experimental spectral-domain tomography tool is under<br />

construction which will provide real-time imaging rate with 0.5µm resolution i.e., to our knowledge, the<br />

highest resolution spectral-domain Optical Coherence Tomography in the world.


Surface Analysis Laboratory<br />

Versatile ellipsometric capabilities: UV-IR


Surface Analysis Laboratory<br />

SELECTED INSTRUMENTS<br />

Spectroscopic Ellipsometry VUV-VASE, IR-VASE,<br />

M2000<br />

Optical properties (refractive index/<br />

dielectric function), layer thickness,<br />

surface roughness, interfacial mixing,<br />

chemical bonding<br />

Atomic Force Microscopy Bruker Dimension Icon High resolution surface topography<br />

Hall Effect Measurement Lakeshore 7700A Resistivity, carrier concentration,<br />

mobility of semiconductors<br />

Optical Microscopy Zeiss Materials surface imaging<br />

Scanning Electron Microscopy Jeol Neoscope Benchtop Materials imaging (top down/cross<br />

section)<br />

Profilometry Contour GT-X8 Optical<br />

Profiler, KLA Tencor Stylus<br />

Profilometer<br />

3D imaging, thickness, roughness<br />

Fluorescence Fluoromax4 Steady-state fluorescence, lifetime<br />

measurement<br />

X-ray tomography SkyScan 3D materials imaging<br />

Spectrophotometer Carry 6000i UV-VIS-NIR Spectrophotometry (solid<br />

and liquid samples)<br />

Sample Preparation Sputter Coater, Plasma-<br />

Preen Cleaner/Etcher<br />

Metals coating, plasma cleaning and<br />

surface treatment<br />

Surface Analysis Laboratory<br />

in <strong>Center</strong> includes a wide<br />

range of techniques for<br />

optical and structural<br />

characterization thin-film<br />

surfaces and interfaces and<br />

liquid-based materials.<br />

These properties are key<br />

issue for materials<br />

development<br />

and<br />

engineering. The laboratory<br />

has a unique spectroscopic<br />

ellipsometry platform<br />

equipped with top of the<br />

line ellipsometers for<br />

accurate<br />

optical<br />

characterization of different<br />

materials.


Printing and Roll-to-Roll Laboratory<br />

Roll-to-Roll Printing:<br />

The Roll-to-Roll printing process is used for<br />

manufacturing rigid and flexible solar cells,<br />

and other printed electronics and photonics<br />

(e.g., fuel cells, thin film batteries, flexible<br />

LEDs and displays, and charge storage devices)<br />

in a continuous roll to roll fashion. Roll-to-Roll<br />

printing is the way to lower the cost of<br />

manufacturing!


Photolithography Laboratory<br />

Classical lithography approaches,<br />

nanolithography, nanoembossing,<br />

and direct laser printing.


Wet Chemistry Laboratory<br />

The Wet Chemistry Laboratory<br />

provides synthetic and analytical<br />

facilities. In six fumehoods<br />

experiments can be carried out in<br />

ambient or under inert gas<br />

atmosphere.<br />

Synthesis equipment in this laboratory<br />

include:<br />

• Centrifuges<br />

• Rotary evaporators<br />

• Drying/Vacuum ovens<br />

• Vacuum pumps<br />

• Schlenk lines<br />

• Gloveboxes<br />

Analytical facilities include:<br />

• Thermal analysis TG-DTA/DSC<br />

• Gel permeation<br />

chromatography GPC<br />

• Physical and chemical<br />

adsorption analyzers


Clean Room and Advanced Deposition<br />

Laboratory<br />

The area consists of Clean Room will be with class 1000<br />

and class 100 zones and deposition facilities. Tools<br />

included allow our researchers and students to carry<br />

fundamental and applied studies.


Integrated Renewable Energy Laboratory<br />

Hands-on research and education in<br />

renewable energy & hybrid systems<br />

engineering and management.<br />

Real world testing of home developed<br />

power generation and storage systems.<br />

Combines renewable power generation<br />

from solar, wind and fuel cells with<br />

advanced energy storage technologies.<br />

Study and evaluation of renewable energy<br />

sources.<br />

Excess energy can be stored in battery bank<br />

or converted into hydrogen to be used as<br />

backup when renewable sources are offpeak.


Advanced Energy Conversion and Storage<br />

Laboratory<br />

This Laboratory is designed to cover<br />

Energy Conversion and Storage topics<br />

with techniques permitting material<br />

synthesis, material forming and device<br />

fabrication, and a range of<br />

characterization techniques of materials<br />

and devices.


Cooperative <strong>Research</strong> Plan<br />

It is the Director’s intent to keep the research plan flexible and<br />

adaptable to future changes in availability of resources and/or<br />

changes in technology requirements and acceptance.<br />

Plan will be revisited during meetings with the <strong>Center</strong> faculty<br />

Industrial and Scientific Advisory Board members, and<br />

adjustments will be instituted as deemed necessary.<br />

<strong>Center</strong> has an applied and industry-aimed broad focus in solar<br />

and other renewable energy technologies.


IP Publications<br />

• E. Alarousu, and G. E. Jabbour “Apparatus for submicron resolution spectral-domain Optical Coherence Tomography<br />

using supercontinuum source” submitted to KAUST office in March 20, 2012<br />

• S. Boulfrad, E. Alarousu, E. Daas, G. E. Jabbour “Inkjet printing with in-situ laser treatment for devices with fast<br />

multilayer deposition“ submitted to KAUST office in March 20, 2012<br />

• S. Boulfrad and G.E. Jabbour, “Apparatus and Method for Porous Solid Backbone Impregnation for Electrochemical<br />

Energy Conversion Systems “ Application submitted to US Office on March 1st, 2012<br />

• S. Boulfrad, O. Bakr, G. E. Jabbour, “Novel Method for Graded Functional Materials,” In preparation (2012)<br />

• M. AlAhmad and G. E. Jabbour, “Fully Integrated solar cell with super capacitor having common electrode on nano<br />

tube substarte,” Submitted 2011-06-28. (Invention Report # 2011-079)<br />

• M. AlAhmad and G. E. Jabbour, “Flexible Energy Harvester with Supercapacitor to convert movement to electrical<br />

energy,” Submitted 2011-06-28.(Invention Report # 2011-080 ).<br />

• M. Bulikemu and G. E. Jabbour, “In situ synthesis of Gold Nanoparticles via inkjet submitted to KAUST IP office<br />

submitted March, 2012


New Energy Oasis


Demonstration and Verification Systems at NEO<br />

Thin Film<br />

Tracking<br />

<strong>Solar</strong> Frontier<br />

10 KW<br />

Q-Cells<br />

5 KW<br />

KANEKA<br />

10 KW<br />

Miasole<br />

5 KW<br />

Crystalline Silicon<br />

SunTrough<br />

Q.Cells<br />

6 KW<br />

BP <strong>Solar</strong><br />

14 KW<br />

Hitachi Bi-Facial<br />

4 KW<br />

Circadian<br />

7 KW<br />

*


[MWh]<br />

KAUST 2MW Roof top installation-Energy Yield<br />

Comparison per Year<br />

[°C]<br />

400<br />

350<br />

Year 1- May 2010 to Apr 2011<br />

Year 2 - May 2011 to Apr 2012<br />

40<br />

35<br />

9300 modules<br />

300<br />

30<br />

250<br />

25<br />

200<br />

20<br />

150<br />

15<br />

100<br />

10<br />

50<br />

5<br />

0<br />

June July August September October November December January February March April<br />

Yield Energy-[Year1] Yield Energy-[Year 2] Average Irr /10 (W/m2)-[Year 1]<br />

Average Irr /10 (W/m2)-[Year 2] Average Temprature-[Year 1] Average Temprature-[Year 2]<br />

0<br />

Year 1 Total Yield Energy : 3441 MWh. Year 2 Total Yield Energy : 3501 MWh.<br />

Increase in Actual yield : 140 MWh = 4%


Seawater based <strong>Solar</strong> Farms<br />

• Drilling beach wells to supply saline water<br />

• Using Wind power to pump water from the beach well<br />

• Using Nano clouds to create clean water and<br />

microenvironment


High efficiency CIGS solar cells<br />

Industrial collaboration with:


28<br />

Na Incorporation in CIGS<br />

Glass/Mo<br />

Substrate<br />

+<br />

Back Contact<br />

HPC Sputtering<br />

Cu,In,Ga<br />

Precursor<br />

CIG<br />

Annealing in<br />

H2Se/Ar<br />

Absorber<br />

CIGS<br />

Chemical Bath<br />

Deposition<br />

Buffer Layer<br />

CdS<br />

RF Sputtering<br />

TCO<br />

i-ZnO/n-ZnO<br />

Grids & Scribing<br />

Na is supplied by NaF evaporation on Mo or on CIG layer before selenization


Efficiency vs precursor composition & NaF<br />

thickness<br />

Active Area: 0.447cm 2<br />

First Results:<br />

- Ca. two months period<br />

- Without sulfur addition<br />

- No MgF 2 (antireflection layer)<br />

- NaF layer on top of CIG<br />

η = 16.04 %


Thank You<br />

sperc.kaust.edu.sa<br />

“…Innovation is probably the single biggest factor determining who succeeds and who fails anywhere in the world.”<br />

Nick Donofrio, IBM Corporation, Global Innovation Outlook, 2007

Hooray! Your file is uploaded and ready to be published.

Saved successfully!

Ooh no, something went wrong!