Beyond Today 2008 IEEE Wireless HIVE Networks Conference HIVE - - PowerPoint PPT Presentation

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Beyond Today 2008 IEEE Wireless HIVE Networks Conference HIVE - - PowerPoint PPT Presentation

Beyond Today 2008 IEEE Wireless HIVE Networks Conference HIVE Networks Conference Keynote Address Walt Trybula, Ph.D., IEEE Fellow, SPIE Fellow e-mail: w.trybula@txstate.edu It's hard to make predictions, especially about the future.


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Beyond Today

2008 IEEE Wireless HIVE Networks Conference

e-mail: w.trybula@txstate.edu

HIVE Networks Conference Keynote Address

Walt Trybula, Ph.D., IEEE Fellow, SPIE Fellow

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“It's hard to make predictions, especially about the future.”

  • Yogi Berra

Courtesy of Mike Polcari

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Moore’s law

e-mail: w.trybula@txstate.edu

But, things are not always what they seem to be

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Moore’s Law Extended

e-mail: w.trybula@txstate.edu

http://www.kurzweilai.net/articles/art0134.html?printable=1

What we know might be different from another vantage point

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“Prey” by Michael Crichton

NANO gone wild?

e-mail: w.trybula@txstate.edu

NANO gone wild?

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SWARM Theory

e-mail: w.trybula@txstate.edu A single ant or bee isn't smart, but their colonies are. The study of swarm intelligence is providing insights that can help humans manage complex systems, from truck routing to military robots. Swarm Theory - National Geographic Magazine http://ngm.nationalgeographic.com/2007/07/swarms/miller-text

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Self-Organizing ‘Bots

e-mail: w.trybula@txstate.edu

http://www.swarm-bots.org/

  • Dr. Francesco Mondada
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Arthur C. Clark

Space Elevator

e-mail: w.trybula@txstate.edu

www.enterprisemission.com/moon5.htm

Arthur C. Clarke's, Fountains of Paradise

http://science.nasa.gov/headlines/y2000/ast07sep_1.htm

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Black Line Ascending

e-mail: w.trybula@txstate.edu

http://www.blacklineascension.com/

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SLIDE 10

e-mail: w.trybula@txstate.edu

MORE PRACTICAL MATTERS

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Nano Everywhere

  • There are hundreds of available consumer products

being spawned as companies manipulate matter at the atomic level, according to The Project on Emerging Nanotechnologies, a Washington, D.C. initiative associated with the Woodrow Wilson International Center for Scholars.

e-mail: w.trybula@txstate.edu

Center for Scholars.

  • The group released a products inventory containing

descriptions of more than 6001 consumer goods purportedly made with some type of nanotech process

  • r nanomaterial.
  • Link to Nanotechnology Consumer Products Inventory -

http://www.nanotechproject.org/index.php?id=44&action=view

1 April 2008 data

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Nano Technology Applications

e-mail: w.trybula@txstate.edu

1 - Organic Light Emitting Diodes (OLEDs) for displays 2 - Photovoltaic film that converts light into electricity 3 - Scratch-proof coated windows that clean themselves with UV 4 - Fabrics coated to resist stains and control temperature 5 - Intelligent clothing measures pulse and respiration 6 - Bucky-tubeframe is light but very strong 7 - Hipjoint made from biocompatible materials 8 - Nano-particle paint to prevent corrosion 9 - Thermo-chromic glass to regulate light 10 - Magnetic layers for compact data memory 11 - Carbon nanotube fuel cells to power electronics and vehicles 12 - Nano-engineered cochlear implant

Compiled by Jo Twist, BBC News On-Line, July 28, 2004

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Window coatings

SEM image of self-cleaning glass Ref: Dr. Helmut Hohenstein of Institut fur Fenstertechnik

e-mail: w.trybula@txstate.edu

SEM image of lotus leaf

There is a great interest in the design and development of the so-called “hygienic surfaces”, referring to surfaces that not only provides biocidal activity but also to those that are easy to clean and even self- cleaning. Achieving these properties on a surface is possible by means of coatings and treatments on specific surfaces, and in which nanotechnology plays a key role. Most of these coatings acquire their biocidal/self- cleaning capacity by incorporating specific nanoparticles: basically silver (Ag) and titanium oxide (TiO 2 ).

Ref: Nano Tsunami - Hygienic surfaces, biocidal and self-cleaning coatings

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Smart fabric

SEM photograph of functional material coating on polyester fiber surface

SEM photograph

  • f the fiber

Interactive fabric Passive fabric

e-mail: w.trybula@txstate.edu

Ref: Toray Institute surface coated with functional material TEM photograph of a cross-section of fiber coated with functional material Electric Plaid: a handwoven, color-changing textile. Photo by International Fashion Machines. Journal of Materials Vol.57, No. 7 Firefly dress

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Stronger materials

IsraCast has recently tested one of the most shock-resistant materials known to man. Five times stronger than steel and at least twice as strong as any impact-resistant material currently in use as protective gear.

e-mail: w.trybula@txstate.edu

  • Ref. http://www.isracast.com/tech_news/091205_tech.htm

The material withstood the shock pressures generated by the impacts of up to 250 tons per square centimeter. The rendering above is of a possible armor vest. (Material production is currently a few kilograms per day.

Certain inorganic compounds such as WS2, MoS2, TiS2 and NbS2 that normally occur as large flat platelets can be synthesized into much smaller nano-spheres and nano-tubes which they named inorganic fullerene-like nanostructures (IF) The "Onion like" nano-structure of the IF materials, is the result of a sophisticated manipulation on the

  • riginal layered material. This unique

structure is responsible for its remarkable strength and durability

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Self healing paints

Nisson will start offering a self-healing paint. After an encounter that creates scratches to the paint, the paint starts to reform itself over the scratch. An overnight reformulation should occur over night. e-mail: w.trybula@txstate.edu

  • Ref. http://www.timesonline.co.uk/article/0,,3-1901520,00.html
  • Ref. http://www.bayer.com/medien/pages/4248/20051208rdinvestordaypaterson_automotive.pdf
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e-mail: w.trybula@txstate.edu

HOW FAR HAVE WE COME?

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Vacuum Tubes – a Flip/Flop

e-mail: w.trybula@txstate.edu

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Printed Wiring Board

e-mail: w.trybula@txstate.edu

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Transistors to Integrated Circuits

Reproduced by Permission of the IEEE, Inc. Used with permission of the Estate of John Bardeen Reproduced by Permission of the IEEE, Inc. Reproduced by Permission of the IEEE, Inc. Courtesy of Texas Instruments, Inc.

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Integrated Circuits

e-mail: w.trybula@txstate.edu

Images Courtesy of IBM Research Center Web Site

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Integrated Circuits

e-mail: w.trybula@txstate.edu

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Wireless Growth

e-mail: w.trybula@txstate.edu

http://www.kurzweilai.net/articles/art0134.html?printable=1

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Opportunities

“The Future Ain’t What It Used to Be…”

e-mail: w.trybula@txstate.edu

It Used to Be…”

  • Yogi Berra
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Future Applications?

  • Automotive
  • Health Care
  • Apparel
  • Medicine

e-mail: w.trybula@txstate.edu

  • Medicine
  • Appliances
  • Entertainment
  • ‘Bots
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Automotive

e-mail: w.trybula@txstate.edu

http://ercim-news.ercim.org/content/view/52/83/

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Health Care

e-mail: w.trybula@txstate.edu

http://techon.nikkeibp.co.jp/article/HONSHI/20070626/134794/

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Apparel

LilyPad Button Board $1.59

LilyPad Arduino Main Board

LilyPad components for wearable clothing

e-mail: w.trybula@txstate.edu

LilyPad Starter Kit $87

http://www.sparkfun.com/commerce/advanced_search_result.php?keywords=lilypad&x=0&y=0&search_section=products

LilyPad Power Supply LilyPad Accelerometer

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Med-bio prosthetics

Requirements: Breakthroughs in

  • neural control,
  • sensory input,
  • advanced mechanics and actuators, and
  • prosthesis design and integration (Ref.)

Other Requirements: Significantly enhanced computing power Reduced power consumption New electronic interfaces e-mail: w.trybula@txstate.edu

Ref: http://www.defensetech.org/archives/cat_medic.html

New electronic interfaces

  • Analog to neural converters (A to N)
  • N to A converters
  • Digital to neural converters (D to N)
  • N to D converters

Note: DARPA is also working on complete arm replacements with neural control.

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Med-bio monitoring

Untethered signal transmission permits remote monitoring

e-mail: w.trybula@txstate.edu

  • Ref. http://www.cs.indiana.edu/surg/Projects/TRIGGERS_SURG_Page/TRIGGERS.html

permits remote monitoring

Dietary tracking with remote sensing

http://www.fibre2fashion.com/news/NewsDetails.asp?News_id=11705

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Appliances

A model touches a panel screen installed in a newly introduced "Internet Refrigerator" at the

  • pening of the PC World Expo

in Makuhari, east of Tokyo, Wednesday, Sept. 30, 1998. The unique refrigerator is connected with all household

e-mail: w.trybula@txstate.edu

http://chronicle.augusta.com/stories/100198/tec_124-3962.shtml

connected with all household euipment like, telephone, air conditioner, bath, television, security, etc., which could be controlled by the touch panel

  • r verbally through a built-in

michrophone.

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Entertainment

  • Multimedia Disaster? Or a Potential application of

technology?

  • How does the cell phone talk to the TV or the Media

Player to remotely program the channels and the time for a program?

  • Does the computer become an integral part of the

e-mail: w.trybula@txstate.edu

  • Does the computer become an integral part of the

system? How?

  • Does biometrics permit viewing options? Parental

control?

  • Where is the systems approach? And how does it work?
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‘Bots

  • Symbrion - Symbiotic Evolutionary Robot Organisms Project Seeks

Self-Building Swarms

  • Multi-robot organisms’ are made up of large swarms of individual robots, each

slightly larger than a sugar cube, which work together to form a single artificial life-

  • form. The organisms are able to share information and energy with one another, and

to manage their own hardware and software

e-mail: w.trybula@txstate.edu

http://www.scientificblogging.com/news_releases/symbrion_symbiotic_evolutionary_robot_organisms_project_seeks_self_building_swarms

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Bot’s

  • Resulting in this headline: “Sugar cube-sized swarm bots could

build Transformers, bring destruction upon us all”

e-mail: w.trybula@txstate.edu

http://www.engadget.com/tag/symbrion/

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e-mail: w.trybula@txstate.edu

HOW DO WE GET THERE?

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Nano

This is a new world

  • Some things will be familiar
  • Others will be totally unknown or unexpected

e-mail: w.trybula@txstate.edu

  • Caution will be required before proceeding

rapidly forward Let’s examine some examples

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Brownian Motion is Fundamental (at least we think so) in cellular movement

e-mail: w.trybula@txstate.edu Courtesy of Deb Newberry

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Nanocomposites

Nanomaterials often have different properties than their bulk-scale counterparts

  • nanocrystalline copper is five times harder than ordinary copper

Nanocomposites are materials where the constituents are mixed on a nanometer scale

  • A nanoscale dispersion of sheet-like inorganic silicate particles in a polymer matrix is superior to

either constituent in such properties as optical clarity, strength, stiffness, thermal stability, reduced permeability, and flame retardancy. Abalone shell has alternating layers of calcium carbonate and a rubbery biopolymer. It is twice as hard and a thousand times tougher than its components. e-mail: w.trybula@txstate.edu and a thousand times tougher than its components. Courtesy of Deb Newberry

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Single Single-Crystal Nanorings Formed by Epitaxial Crystal Nanorings Formed by Epitaxial Self Self-Coiling of Polar Nanobelts Coiling of Polar Nanobelts

Science, 303 (2004) 1348

e-mail: w.trybula@txstate.edu 1 m

500 nm

1 m Courtesy of Rao Tummala

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Novel Attributes

The “nano” realm is the region of the physical world where bulk material

e-mail: w.trybula@txstate.edu

physical world where bulk material properties may not all apply!

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Melting Point is Dependent on Particle Size

Melting Point is not Constant!

e-mail: w.trybula@txstate.edu

Source: K.J. Klabunde, 2001

NASA Ames

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Inconsequential Effects are NOT!

Mask Process Induced Changes

(a) With Resist and Chrome / Shifter layers (b) After Resist layer removal (c) Subtracted map for Resist layer (d) After Chrome / Shifter layer removal (e) Subtracted map for Chrome / Shifter layer

Even typical processes can create issues that impact desired images U Wisc. work shows 5nm image position displacement under ideal conditions

With 9nm overlay tolerances, 5nm displacements are enormous

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Novel Material Properties

e-mail: w.trybula@txstate.edu

A Carbon60 Buckyball (Courtesy CNI)

A Carbon50 Buckyball has been reported – properties are different from Carbon60

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More of the Same

e-mail: w.trybula@txstate.edu

But, 13 atoms of Silver have been theoretically shown to have a magnetic moment And, 13 atoms of Platinum have been experimentally shown to have a magnetic moment

How do we apply these facts?

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CNT is a tubular form of carbon with diameter as small as 1 nm. Length: few nm to microns. CNT is configurationally equivalent to a two dimensional graphene sheet rolled into a tube. CNT exhibits extraordinary mechanical properties: Young’s modulus over 1 Tera Pascal, as stiff as diamond, and tensile strength ~ 200 GPa. CNT can be metallic or semiconducting, depending on chirality.

Courtesy of M. Meyyappan

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Nano thickness

Absorber Buffer Absorber Buffer

2.3nm Si, 4.6nm Mo

e-mail: w.trybula@txstate.edu

Multilayer

Low thermal expansion substrate

TEM courtesy of AMD

Multilayer

Low thermal expansion substrate

TEM courtesy of AMD

2.3nm Si, 4.6nm Mo

EUV Mask Blank

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Bulk Materials

e-mail: w.trybula@txstate.edu

Jakob Schiøtz and Karsten W. Jacobsen ,Science 301, pp. 1357-1359 (5 September 2003). Deformation of nanocrystalline copper – grain diameter of 50nm Maximum strength with 10nm copper grain size

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Bulk Materials

e-mail: w.trybula@txstate.edu

Alain E. Kaloyeros et al, Exploiting Nanotechnology for Terahertz Interconnects Semicondcutor Interantional January 2003

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The effect of surface roughness The effect of surface roughness

  • Multiple contact points
  • Reduces the total

adhesion forces

  • Higher roughness leads

to higher available

Cleaning Nano Cleaning Nano

e-mail: w.trybula@txstate.edu

F

A

to higher available surface

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Cleaning Nano

The Challenge!

Cleaning Nano

The Challenge!

e-mail: w.trybula@txstate.edu

Before clean After clean Redeposition is an issue Problem with heating quartz

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Parts Per Billion Impact

0.5 min delay 3 min delay 5 min delay

Resist A, 1500A thk BARC DUV30J 836 A thk

0 NH3/ 0 HNO3 Best stability

Expose to PEB Delay e-mail: w.trybula@txstate.edu BARC DUV30J 836 A thk 0.85NA, 0.3 sigma 157nm 70nm 1:1 51 mJ/cm2 and best focus

1 NH3/ 0 HNO3 1ppb NH3 with no acid is Fatal !

>1nm/min CD change with best resists at ~0.3 ppb NH3 Courtesy of Jan Makos-Brotherton

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Nano-Bubbles

e-mail: w.trybula@txstate.edu

Experimental evidence from non-semiconductor efforts

Invention Required!

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Required Developing a Novel Process for Imaging

e-mail: w.trybula@txstate.edu

Experimental Rapid Cryofixation process

Courtesy of Mordy Rothschild

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& Beyond

The challenges are ……..

e-mail: w.trybula@txstate.edu

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Technology Challenges and Opportunities “When you come to a fork in the road... take it

e-mail: w.trybula@txstate.edu

fork in the road... take it .”

  • Yogi Berra

Courtesy of Mike Polcari

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As device feature size continues to shrink (180 nm 130 nm 90 nm) and chip density continues to increase, heat to increase, heat dissipation from the chip is becoming a huge challenge.

Courtesy of M. Meyyappan

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Spin-Resonance Transistor (SRT)

  • Transistors that control

spins rather than charge

  • More energy efficient than

conventional transistors

e-mail: w.trybula@txstate.edu

conventional transistors

  • Combines magnetic and

electrostatic fields

  • May enable quantum

computing

Courtesy Eli Yablanovitch, UCLA Courtesy Eli Yablanovitch, UCLA

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Interconnects

CNT advantages: (1) Small diameter (2) High aspect ratio (3) Highly conductive along the axis (4) High mechanical strength

Courtesy of M. Meyyappan

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Quantum Dot Transistors

e-mail: w.trybula@txstate.edu

Jeng-Chung Chen, Purdue University – April 2004 Physical Review Letters

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In Closing, More Yogi Berra Thoughts

It’s not too far, it just seems like it is.

e-mail: w.trybula@txstate.edu

You can observe a lot by watching.

CBS picture, July 2003

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Closing Thoughts

  • There will be many new wireless opportunities

– Some will be successful – And, some will not

  • Development of HIVE Wireless based on nano

does not refer to the investment required

e-mail: w.trybula@txstate.edu

does not refer to the investment required

  • Interactions are complex and resulting
  • utcomes can be surprising, to say the least.

Caution must be exercised

  • Leveraging existing industry will facilitate the

development of this community

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Acknowledgements

  • Deb Newberry – Newberry Technology
  • Mike Polcari – President, SEMATECH
  • Prof. Rao Tummala – Director Georgia

Tech Packaging Research Center

e-mail: w.trybula@txstate.edu

  • M. Meyyappan – Director NASA Ames

Center for Nano Technology

  • Ken Monnig – Colleague from SEMATECH