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Materials Design of Coal to Products Jeffrey C. Grossman Department of Materials Science and Engineering Massachusetts Institute of Technology [email protected] NCC 2020 Fall Annual Meeting | 10.23.2020
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Materials Design of Coal to Products

Mar 16, 2022

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Page 1: Materials Design of Coal to Products

Materials Design of Coal to Products

Jeffrey C. Grossman

Department of Materials Science and EngineeringMassachusetts Institute of Technology

[email protected]

NCC 2020 Fall Annual Meeting | 10.23.2020

Page 2: Materials Design of Coal to Products

Coal as a feedstock material: Certainly not a new idea

medicines

photography

paint

insecticides

Billiard balls

linoleum

baking powder

(1930)

A souvenir made by 6th graders from Huntington, West Virginia, for then senator JF Kennedy

Page 3: Materials Design of Coal to Products

How can we apply modern materials design tools to unlock the rich chemistry in natural carbon as a cheap, highly adaptable feedstock?

Page 4: Materials Design of Coal to Products

B. Keller, N. Ferralis, J.C. Grossman. Nano Lett. 2016, 16, 5, 2951–2957

Coal

Annealing

Conductivity better than reduced graphene

4

Brent Keller

Nicola Ferralis

Page 5: Materials Design of Coal to Products

Comparing Coal to Tar

5

• “Steam-cracker” tar is a carbon waste product• Literally “bottom of the barrel” burned or given away

Oven annealing

Page 6: Materials Design of Coal to Products

Transparent heaters from Tar

O. Morris et al. Adv. Mater. 2019, 31, 1900331 6

Owen Morris

Xining Zhang

Nicola Ferralis

Page 7: Materials Design of Coal to Products

Laser Processing of tar

O. Morris et al. Adv. Mater. 2019, 31, 1900331 7

Local heating of the laser:

• suitable for different substrates

• compatible with lithography processes

Page 8: Materials Design of Coal to Products

Expanding the toolbox of hydrocarbons

Tar Pitch

(mesophase)

Coal

0.14

0.66

0.780.83

1

0.64

Initial Final 0.0

0.2

0.4

0.6

0.8

1.0

1.2

1.4

Sp

2

Tar

Coal

Mesophase

1.84

1.14

0.59

0.34

0.580.52

Initial Final 0.0

0.4

0.8

1.2

1.6

2.0

H:C

Tar

Coal

Mesophase

C. Jian, X.Zang, N Ferralis, JC Grossman, Carbon, 155, 309 (2019)

Page 9: Materials Design of Coal to Products

X. Zang et al., Sci. Adv. 2020; 6 : eaaz5231 Xining Zhang Nicola Ferralis

Different carbon feedstocks can be combined to control properties.

Page 10: Materials Design of Coal to Products

0 20 40 60 80 1000.2

0.4

0.6

0.8

1.0

ID/IGID

/IG

La (A)

X. Zang et al., Sci. Adv. 2020; 6 : eaaz5231

graphene Diameter (A)

Xining Zhang Nicola Ferralis

Can control sp3 fraction, graphene flake size & stacking over a broad range

grap

hen

e St

acki

ng

Different mixtures / laser power

Page 11: Materials Design of Coal to Products

Silicon QuantumDots

Manufacturing complexity▪ Simple Materials

▪ Complex Fabrication

▪ Complex Materials

▪ Simple fabrication

V. Bulovic. Energ Environ Sci 8, 1200, 2015

Natural carbon (coal, pitch, tar, etc.):• Materials complexity, high heterogeneity • Massive tunability• Can tailor manufacturing to application• Ultra-cheap

coal

Page 12: Materials Design of Coal to Products

Coal with a laser and deeper understanding

Anthracite

Bituminous

Lignite

Molecular Representation Coal Microstructure Laser Annealed Coal

Coal maturity + laser + additives lead to massive control over:• Electronic

properties• Magnetic

properties• Structural

properties

Page 13: Materials Design of Coal to Products

X. Zang et al. Submitted (2020). 13

Printed Coal Electronics

Printed metal powder in air with coal/tar binder

Xining Zhang

Nicola Ferralis

Page 14: Materials Design of Coal to Products

Laser Engineered Coal (R-2-R)

Pressing

First Bath Substrate Cleaning Second Bath Functionalization

Inkjet Printing/Spraying

Ball milling

Dispersion

Solution/surfactant

Drying

Third Bath Binder Structure, porosity, conductivity and etc

Doping

Develop solution based coating, and integrate fiber laser for R-2-R manufacturing.

Layer 1

Layer 2

Page 15: Materials Design of Coal to Products

Large-area application example #1: functional coatings

Page 16: Materials Design of Coal to Products

Photo credit: Bernard Gagnon, CC BY-SA 3.0,

https://commons.wikimedia.org/w/index.php?curid=25603883

Camel fur helps to keep camels cool!

Can we do as well as a camel?

Large-area application example #1: functional coatings

Page 17: Materials Design of Coal to Products

Large-area application example #1: functional coatings

• The cost bottleneck is

the aerogel. Can we

make a coal-based

aerogel?

• Cheap thermal coatings

made from coal could

make this technology

scalable.

Page 18: Materials Design of Coal to Products

Two Ways to Separate Pasta

Membrane Thermal>80% Energy savings

Large-area application example #2: membranes

Page 19: Materials Design of Coal to Products

★Sugars★Small proteins★Amino acids★Molecular chemicals★Antibiotics★Dissolved salts★Acids★Bases★Dissolved oils★Dyes

US Energy Consumption (2015)

Industry

32%Transportation

28%

Commercial

18%Residential

22%

Evaporation & Distillation 40%12 quadrillion BTU

★ Desalination

Two Ways to Separate 1-10 nm Particles

Page 20: Materials Design of Coal to Products

Howard Perlman, USGS, NOAA Drought Monitor, 2016

accessible freshwater

available seawater Switch from

thermal to

membrane

based

Page 21: Materials Design of Coal to Products

MillimetersMicronsNanometers

MacrofiltrationCeramic materials

No robust option

Page 22: Materials Design of Coal to Products

22

Shreya Dave

Brent Keller

S. Dave, B. Keller, K.

Golmer, and JCG, Joule

2017

Page 23: Materials Design of Coal to Products
Page 24: Materials Design of Coal to Products

24

Shreya Dave

Brent Keller

24

ViaSeparations

6000x scale-up

Cost-Effective, Robust, Graphene-basedfiltrations for Industrial Applications

D. Cohen-Tanugi et al. Energy Environ. Sci., 2014, 7, 1134S. Dave, B. Keller, K. Golmer, and JCG, Joule 2017

Page 25: Materials Design of Coal to Products

Feedstock: Coal?

Graphene Membrane

Nanoscale Performance

Page 26: Materials Design of Coal to Products
Page 27: Materials Design of Coal to Products

50th Percentile for each technology, IPCC Special Report on Renewable Energy Sources and Climate Change Mitigation 27

Coal

different^

…by understanding its atomic-scale chemistry and leveraging its flexibility as a feedstock for advanced manufacturing of new, functional, robust, cheap materials.

Page 28: Materials Design of Coal to Products

Iron

Industry Silicon

Stones

Bronze

Plastics

Atom ScaleMaterials Design

The Age We Live

28

Page 29: Materials Design of Coal to Products

Current Group and Support

Brendan Smith

Nicola Ferralis

Xining ZhangYanming Wang

Staff

Post-docs

Grad Students

Laura von Bosau

David Bergsman Zhengmao Lu Thomas Sannicolo

Taishan Zhu

Adam Trebach

Tian XieAsmita Jana

David Chae

Ki-Jana Carter

Emily Crabb

Xiang Zhang

Sheng Gong

Jatin Patil