Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

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Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004

Transcript of Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

Page 1: Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

Micro to Nano Technologies

By: Brent HareLenox laser

March 30, 2004

Page 2: Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

Micro to Nano Technologies

Micro - Prefix meaning one millionth, 1/1,000,000

Nano – Prefix meaning one billionth, 1/1,000,000,000

Page 3: Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

The Powers of 10

10+0 1 Meter

10-1 10 Centimeters

10-2 1 Centimeters

10-3 1 Millimeter

10-4 100 Microns

10-5 10 Microns

10-6 1 Micron

10-7 1,000 Angstroms

10-8 100 Angstroms

10-9 1 Nanometer

10-10 1 Angstrom

10-11 10 Pico meters

10-12 1 Pico meter

10-13 100 Fermis

10-14 10 Fermis

10-15 1 Fermi

10-16 0.1 Fermis

10-17 0.01 Fermis

10-18 0.001 Fermis

Page 4: Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

Current Micro Technologies

Photonics - Optical Apertures and Flow Orifices

Electronics – Semiconductor chips, anodic bonding

MEMS – Micro Electro Mechanical Systems

Communication – Fiber optics, switching interconnects

Biotechnology - cell filtration, drug discovery

Page 5: Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

Current Nano Technologies

Molecular manufacturing – Precision down to the atomic level

Nanotubes –Building advanced lightweight materials as well as advancements in LCD technologies

Medicine – Devices that will flow through the circulatory system

Nanocomposites – Assisting in vast improvements in material compositions

Electronics – Advanced CMOS and silicon transistor integration with lithography

Page 6: Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

mms://stream.techtv.com/windows/bigthinkers/2002/bt020225b_165_0.asf

Micro scaling to Nano

Click Picture to watch Nanotechnology movie

Page 7: Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

http://www.memsoptical.com/prodserv/products/microlensar.htm

Micro - Optics

Ability to drill to ½ micron for half the wavelength

Micromirrors for next generation telescope optics

Micromirrors

Microlens Arrays

Page 8: Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

http://www.geek.com/procspec/intel/pic2p4-13.htm

Micro - Electro

Pentium 4- Top speed – 3.4ghz Built on a 0.13

micron die 168 million

transistors on 200mm2

Page 9: Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

http://www.utnl.jp/~mada-lab/research.html

Micro - Chemical

Miniature fuel cells Micro channels Chemical reactors

50 Micron Chemical Reactor

Micro Chemical Channel

Micro Fuel Cell

Page 10: Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

Photos from Pittcon

Micro Flow Devices

=

Swagelock hasbegun to minaturizeits flow components

3ft. X 4ft.

6in. x 18in.

Page 11: Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

http://www.memx.com/image_gallery.htm

Micro - Engineering

Micro gears Micro embossing and

stamping Microactuators (Tiny

Motors) Micro-valves

Micro-valves

Micro embossing

Complex Ratchet

Page 12: Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

http://us.st.com/stonline/prodpres/dedicate/mems/technolo/micro/photo.htm

Micro - Mechanical

Microactuators – tiny motors

Page 13: Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

http://www.memx.com/image_gallery.htm

Micro Mechincal

World’s smallest steam engine, the pistons are 5 microns

and it actually works

Micro Clutch mechanism, gears are 50 microns

Page 14: Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

http://www.sensorsmag.com/articles/0700/10/main.shtml

Microfluidics

Capillary uptake Piezoelectric

inkjets Flow sensing Drug dispensing Flow based

separation

Print Cartridges

Lab-On-Chip for DNADetection and Analysis

Micro Canals

Page 15: Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

http://www.lucent.com

Micro Communications

Full optical switching technologies

Most fiber optic backbone in the United States ranges from 1.3 to 1.5 micrometers and can transmit over 5 GBps and can span 93 miles Fiber optic switching

Page 16: Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

e-blox (Scaleable, Interfaceable, Stackable)

Micro to nano interfaces for simple solutions e-blox allows you to build backbones

connecting Gas, Liquid, Electro, Optical – Fiber/Micro, and nanotechnologies in order to build unique devices for MEMS and other technologies

Imagine devices built with the integration of all of these competing technologies on a Scaleable, Interfaceable, Stackable solution at the micro and nano level

Page 17: Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

http://www.smalltimes.com/document_display.cfm?document_id=5340

MEMS (Powder Metal Die Casting for building small parts)

The ability to arrange particles and then compress them into a die to build ultra small parts that can be used in MEMS technologies i.e. e-blox

They have the ability to create miniature tools and dies to help build MEMS technologies

Micro Sensor 0.051mm

Page 18: Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

http://www.solid-edge.com/

Rapid Prototyping

Use of 3D CAD modeling with SolidEdge

3D Scanning Technologies – Use of lasers and optics to scan surface objects

3D Holography Technologies – Holograms for real visualizations

3D CAD Model

Page 19: Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

http://www.epner.com/electroforming_intro.ssi

Electroforming Technologies

Electroforming is the process of fabricating a part from the plating itself. A shaped mandrel is plated long enough to build up a "stand alone" thickness. The mandrel is then removed by melting, chemically etching or exploiting differences in thermal coefficients of expansion between the electroformed part and the mandrel.

Page 20: Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

http://www.memsnet.org/mems/beginner/etch.html

Etching Technologies

Wet Etching – Dissolves materials with chemicals and the use of masks

Dry Etching - ion etching (RIE), sputter etching, and vapor phase etching are used by blasting the material surface with ion gases

Page 21: Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

http://www.intel.com/research/silicon/lithography.htm

Lithography Technologies

Lithography is a printing process where image areas and non-image areas are separated chemically

Silicon semiconductor companies use extremely small masks to mark silicon wafers with 248 nm, 193nm, and now 13.4nm wavelengths of light

Page 22: Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

Piezeo electronics (for micro to nano movement)

Pizeoelectronics are materials that produce an electrical response to a mechanical force.

Can be used in Vibration Monitoring, Imaging

Arrays, Doppler Probes, Biotech, Pharmaceutical, and Industrial & Process Control

Page 23: Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

http://www.sciam.com/article.cfm?chanID=sa002&articleID=000CE8C4-DC31-1055-973683414B7F0000&pageNumber=4&catID=2

First NanoChips

Integrated circuits can be made down to 50nm

50nm chips are made using 193nm lithography (smaller than a wavelength so they use diffraction corrections)

Page 24: Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

http://www.sciam.com/article.cfm?chanID=sa002&articleID=000CE8C4-DC31-1055-973683414B7F0000&pageNumber=4&catID=2

Next Generation Nano Lithography

To build chips smaller than 50nm, new lithography technologies must be created – The above technology can use 13nm ultraviolet wavelengths

Page 25: Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

http://www.sciam.com/article.cfm?chanID=sa002&articleID=000CE8C4-DC31-1055-973683414B7F0000&pageNumber=4&catID=2

Nano Biotechnologies

Scientists have developed a way to use DNA for minuscule wires that can be used in nanoelectronics

Ability to have insulated wires sized at 25nm and 20 microns in length

Page 26: Micro to Nano Technologies By: Brent Hare Lenox laser March 30, 2004.

http://www.lbl.gov/Science-Articles/Archive/images4/nanotubes-model.jpg

Nanotubes Conductive and high-

strength composites Energy storage and

energy conversion devices

Sensors Medical drug delivery

and DNA research Nanometer-sized

semiconductor devices, probes, and interconnects

Nanotubes are built by arrangingseveral atoms in a closed pattern to form an unbelievably small tube