design and applications of luminescent logic systems

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Design and Applications of Luminescent Logic Systems

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Page 1: Design and Applications of Luminescent Logic Systems

Design and Applications of Luminescent Logic Systems

Page 2: Design and Applications of Luminescent Logic Systems

generalization

integration

numeracy

games

reconfiguring

object identification

improved sensing

MolecularLogic Gates

Nimal Gunaratne, Colin McCoyNature 1993, 364, 42

George Boole1849-64, Cork

Page 3: Design and Applications of Luminescent Logic Systems

Kim, Yoon,Choi, Zhang

Lehn

Bouas-Laurent, Desvergne,Bassani, McClenaghan Balzani, Credi,

Venturi, Gentili,

Bharadwaj, Khan,

Samanta

Adleman,Ghadiri,

de Silva,Yurke

Pina, Pischel

Garcia-

Brown

Raymo, Zhu,

Akkaya

Ji

Gunnlaugsson,MacDonaill

Birge, Stojanovic,Seeman,Avouris,Katz, Privman,Sokolov, Wang

Langford,Stefanovic,

Wasielewski,

Levine, Speiser,Shanzer,Willner,Shabat,Ashkenasy,Lotan,Van der Boom,Rabani, Shapiro, Eichen

Konermann Remacle

Reif

Diederich, Constable, Schluter

de SilvaWettig

Inestrosa,Jin

Schneider, Rurack,

Uchiyama, Aida,

Leigh,Callan

James, Stoddart, Parker, Beer, Chin, Grigg,Williams, Tucker, Zauner, Fallis, Aldridge

Szacilowski,

Chiu

Gust, Moore

Steer, Yeow,

Iwai, Okamoto,Sugimoto, Hirai,

Redmond,

Miranda,

Kimura,

Miyashita

Tian, Wang, Jin,

Lu, Ma

Lerner,Barbas,

Wu

Toma

Conrad, Liu, SmithBazan

Andreasson, Sun

Liu

Tanaka, Fujita,

Breaker,

Das

Kumar,

Lu

Zhang, Zhu, Yan, Li, Fu,

Huang, Zhang, Yu,

Mihara, Nojima,

Tomizaki, Matsui,

Pischel

Fujimoto, Akashi,

Qian, He

Yang

Benenson, Walt

Stoddart, Heath, Smolke

Vasquez-Lopez

Yuan, Fang,Voegtle, Schmittel,

Shi, Tong,

Hamilton

Doorn

Wang, Xing,

Kinbara

Miyashita, Hamachi

Samoc

Callan,

Perez-

Espana,

CoveraKolpashnikov,

Ihmels, Theato

Wang

Bhalla,

Upadhyay

Wu, Shi

Singh

Pallavicini, Fabbrizzi,

Kubo

Campagna, Quici

Evans

Johnson

Page 4: Design and Applications of Luminescent Logic Systems

D’Souza

JiaSuzuki, Araki

Budyka

Alexander, Jones, Steed

Nandi

Jang

Alfonta

Humphrey

Magri

Hill, Ariga

Stoddart

Zink,

deSouter-Lecomte

Pasparakis

PandeySiri

Mayer, Nau, Schalley,

Dwyer

Sessler, Tour

Jiang

Ha, Lee, Kim, Oh

Plaxco

Seeberger, Schiller

Kandaswamy

Jiang

Zhang

Wang, Qu,Dong, Ren,

Zhu

Yamada, Ogawa,

Kong,

Ruiz-Molina

Huang

Zhang, Ye,

Pita

Ajayaghosh

Maeda

Tuntulani

Shvarev

HanleyDarwish,

Stokke

Wang, Jiang, Hu

Cheng

Leung

Flood

Page 5: Design and Applications of Luminescent Logic Systems

011

100

OUTOUTIN

NOTYES

IN IN

OUT OUT

111

001

010

000

OUTIN2IN1

AND

IN1 IN2

OUT

Page 6: Design and Applications of Luminescent Logic Systems

Luminescent molecular switchable systems can gather and process information

Optical response

Chemical stimulus level

Analog region

Digital 1

Digital 0

Page 7: Design and Applications of Luminescent Logic Systems

Molecular Computation in a Small Nanospace

Seiichi Uchiyama, Gareth McClean,Kaoru Iwai (Nara Women’s University)

J. Am. Chem. Soc. 2005, 127, 8920

Page 8: Design and Applications of Luminescent Logic Systems

3 nm

Soap micellewith ion cloud

Page 9: Design and Applications of Luminescent Logic Systems

O

OO

O

O

N

fluorophorespacer spacerreceptor2

anchor

Na

receptor1

H

fluorophorespacer spacerreceptor2

anchor

Na+

receptor 1

H+

OSO3 N

Page 10: Design and Applications of Luminescent Logic Systems

400 5000

400 500Wavelength (nm)

HH+

Na+

HH+

Na+

none

and

IF

Page 11: Design and Applications of Luminescent Logic Systems
Page 12: Design and Applications of Luminescent Logic Systems

Combining Several Diagnostic Tests and Data Processing

in a “Lab-on-a-Molecule”

David Magri, Gareth McClean, Gareth Brown

J. Am. Chem. Soc. 2006, 128, 4950

Page 13: Design and Applications of Luminescent Logic Systems

Full Blood CountDate : 20.08.2005

Description Result Units Reference Ranges RemarksHaemoglobin 8.70* g/dl 12.00 17.50 LowRBC 2.34* x 10x6/mm3 3.50 6.00 LowPCV 26.70* % 40.00 54.00 LowMCV 114.10* fl 70.00 96.00 HighMCH 37.20 pg 27.00 32.00 HighMCHC 32.60 g/dl 30.00 ….35.00 …NormalPLATELETS 140,000.00 mm3 150,000.00 450,000.00 LowWBC 8,200.00 mm3 4,000.00 11,000.00 NormalNEUTROPHILS48.00 % 40.00 75.00 …normalLYMPHOCYTES48.00 % 10.00 45.00 HighEOSINOPHILS 2.0 % 1.00 6.00 NormalMONOCYTES 2.00 % < 10.00 Normal

Performed by Sysmex/Hycell Automated Haematology Analyzers

Logical combination of ‘high’ and ‘low’

parameters identifies disease

Page 14: Design and Applications of Luminescent Logic Systems

Spacer ReceptorReceptor Spacer SpacerFluorophore Receptor

O

OO

O

O

N

N CO2

CO2

-

-

HH+Na+

Zn2+

Page 15: Design and Applications of Luminescent Logic Systems

Wavelength / nm

400 440 480 520

+

Na+ , H+ , Zn 2+

Na+ , H +

Na+ , Zn 2+

Na +

H+ , Zn 2+

Zn 2+

H

No inputs

0

IF

Page 16: Design and Applications of Luminescent Logic Systems

1 (high, 0.020)1 (high)1 (high)1 (high)

0 (low, 0.006)1 (high)0 (low)1 (high)

0 (low, 0.007)0 (low)1 (high)1 (high)

0 (low, 0.006)0 (low)0 (low)1 (high)

0 (low, 0.003)1 (high)1 (high)0 (low)

0 (low, 0.002)1 (high)0 (low)0 (low)

0 (low, 0.001)0 (low)1 (high)0 (low)

0 (low, 0.001)0 (low)0 (low)0 (low)

Output Fluorn F

Input3

Zn2+

Input2

H+

Input1

Na+

3-Input AND Logic Truth Table

Page 17: Design and Applications of Luminescent Logic Systems

Molecular Computational Identification (MCID)

of Small Objects in Populations

Sheenagh Weir, Bernie McKinney Dave Pears, Mark James (Avecia)

Nature Mater. 2006, 5, 787

Page 18: Design and Applications of Luminescent Logic Systems

Radiofrequency Identification (RFID): The semiconductor technology approach to identifying

each object (Goods, People) in an entire population

1 mm x 1 mm RFID chip (Hitachi)

Page 19: Design and Applications of Luminescent Logic Systems

EXCITATION WAVELENGTH: 368 nm

NNH

O

500Wavelength (nm)

Flu

ore

scen

ce

Inte

nsi

ty

385

100 Increasing pH

422

401

446

Prefabricated YES logic gate fixed to polymer bead (0.1 mm)

0

Page 20: Design and Applications of Luminescent Logic Systems

Prefabricated logic gates fixed to polymer beads

NNH

O

YES O

NH

PASS 1NO

NH

NOT

0

3 5 7 9 11pH

100

IF

1

YES

PASS 1

NOT

Page 21: Design and Applications of Luminescent Logic Systems

Arraying gates with identical fluorophores

and different logic type

2.5 % loading 2.5 % loading

Wavelength (nm)385 500

100

Increasing pH

422

401 446

O

NH

NNH

O

0

IF

Page 22: Design and Applications of Luminescent Logic Systems

PASS 1 YES PASS 1 + YES

Input(H+)

Output (Fluorescence)

Output (Fluorescence)

Total Output(Fluorescence)

0 1 0 1

1 1 1 2

pKa : 4.4

0

20

40

60

80

100

2.5 4.5 6.5 8.5 10.5

pH

Em

iss

ion

(at

422

nm

)

OUT( Blue fluorescence)IN

(H+)OUT( Blue fluorescence)

Page 23: Design and Applications of Luminescent Logic Systems

Multi-valued logic is available for molecular computational identification c.f. binary logic needed in semiconductor computing

Combinations of:Many (>5) excitation colours

Many (>5) emission colours

Many (>5) types (YES, NOT, PASS 1, AND,…)

Many (>5) chemical inputs (H+, Na+,…)

Many (>2) thresholds (pH 7, pH 4,…)

Many (>5) combinations (YES + PASS 1, YES + 2 PASS 1,…)

Conservatively, millions of m objects can be encoded!

Page 24: Design and Applications of Luminescent Logic Systems

acid

alkali

A

A

B

B

C

C

D

D

E

E

F

F

G

G

I

I

J

J

A; PASS 1 B; NOT C; PASS 1 D; PASS 1 + YES (1:1) E; YES F; NOT G; PASS 1I; YES J; PASS 0

Page 25: Design and Applications of Luminescent Logic Systems

“Plug-and-Play” Logic via Self-Assembly

Vinny Vance, Catherine Dobbin, Boontana Wannalerse

Chem. Commun. 2009, 1386

Page 26: Design and Applications of Luminescent Logic Systems

_

_

_

_

_

_

_

_

_

_

_

_

_

_

_

_

__ _

__

__

R

L

S RL

Self-Assembled YES Logic:

Covalently bound YES Logic:

Assembler: Non-ionic Detergent Micelle

N

N

2

N

N

n-C9H19

n-C9H19

RuII

OOH

10

O-

Long-lived (100 ns) lumophore

Page 27: Design and Applications of Luminescent Logic Systems

O-

pKa = 9.9

Page 28: Design and Applications of Luminescent Logic Systems

_

_

_

_

_

_

_

_

_

_

_

_

_

_

_

_

__ _

__

__

R 1

L

R2

SS R1L R2

Self-Assembled AND Logic:

Covalently bound AND Logic:

O-

N

CO2 CO2

On-C8H17

- -

pKa = 9.9 pKa = 5.8 Log Ca2+ = 1.5

Page 29: Design and Applications of Luminescent Logic Systems

11; 10-8 M H+ and 0.2 M Ca2+ 01; 10-12 M H+ and 0.2 M Ca2+

10; 10-8 M H+ only

00; 10-12 M H+ only

O-

N

CO2 CO2

On-C8H17

- -

Page 30: Design and Applications of Luminescent Logic Systems

_

_

_

_

_

_

_

_

_

_

_

_

_

_

_

_

__ _

__

__

R

L

S RL

Self-Assembled OR Logic:

Covalently bound OR Logic:

Non-selective Receptor

N

CO2 CO2

On-C8H17

- -

binds H+ or Ca2+

pKa = 5.8 Log Ca = 1.5

Page 31: Design and Applications of Luminescent Logic Systems

11; 10-4 M H+ and 0.2 M Ca2+ 10; 10-4 M H+ only

01; 10-8 M H+ and 0.2 M Ca2+

00; 10-8 M H+ only

N

CO2 CO2

On-C8H17

- -

Page 32: Design and Applications of Luminescent Logic Systems

Logic Gates withTemperature Input

Seiichi Uchiyama, Narumi KawaiKaoru Iwai (Nara Women’s University)

J. Am. Chem. Soc. 2004, 126, 3032

Page 33: Design and Applications of Luminescent Logic Systems

Temperature-sensitive co-polymer

O

O

N

SO2NMe2

NO

N

Co-polymerizable polarity sensor(Emission weakens in water)

NH

O

NMe2

NH

O

and

Page 34: Design and Applications of Luminescent Logic Systems

20 30 40

Temperature / C

0

IF

10

pH 7

Page 35: Design and Applications of Luminescent Logic Systems

20 40 60

Temperature / C

0 80

pH 9

pH 8

pH 7

pH 5

0

IF

Page 36: Design and Applications of Luminescent Logic Systems

2-Input INHIBIT Logic Truth Table

0 (low; 1)1 (high; 10-5 M)1 (high; 35 C)

1 (high; 10)0 (low; 10-9 M)1 (high; 35 C)

0 (low; 1)1 (high; 10-5 M)0 (low; 10 C)

0 (low; 1)0 (low; 10-9 M)0 (low; 10 C)

Output

Fluorescence

Input2

H+

Input1

Temperature

Page 37: Design and Applications of Luminescent Logic Systems

ProvidenceProvidence

LuckLuck

SerendipitySerendipity

EPSRCEPSRC

DENIDENI

EUROPEAN COMMISSIONEUROPEAN COMMISSION

JAPAN SOCIETY FOR JAPAN SOCIETY FOR THE PROMOTION OF SCIENCETHE PROMOTION OF SCIENCE