Uploaded on Jun 30, 2021
Professor Richard Feynman forecast the bright future of nanomaterials in his popular lecture, “There’s Plenty of Room at the Bottom.” Since then, many trials have been made to consider and manipulate matter at the atomic level to exploit nanoscale properties. Ph.D. Assistance serves as an external mentor to brainstorm your idea and translate that into a research model. Hiring a mentor or tutor is common and therefore let your research committee know about the same. We do not offer any writing services without the involvement of the researcher. Learn More: https://bit.ly/3A7Q1yT Contact Us: Website: https://www.phdassistance.com/ UK NO: +44–1143520021 India No: +91–4448137070 WhatsApp No: +91 91769 66446 Email: [email protected]
Graphene’s for Research and the Growing Number of Publications Per Year - Phdassistance
GRAPHENE’S FOR
RESEARCH AND
THE GROWING
NUMBER OF
PUBLICATIONS
PER YEAR
An Academic presentation by
Dr. Nancy Agnes, Head, Technical Operations,
Phdassistance Group www.phdassistance.com
Email: [email protected]
TODAY'S
DISCUSSION
Outline
Introduction
Nanostructure
Trends
The Graphene survey
The use of graphene
Future Scope
INTRODUCTIO
N Professor Richard Feynman forecast the bright
future of nanomaterials in his popular lecture,
"There's Plenty of Room at the Bottom."
Since then, many trials have been made to consider
and manipulate matter at the atomic level to exploit
nanoscale properties.
Contd...
In 2021, the number of scholarly papers describing graphene's
use was enormous.
With such a high level of curiosity in graphene, both specialists
and the public need to stay updated on recent and historical
graphene technology.
This article looks at graphene and its effect on the science
environment.
NANOSTRUCTUR
E Graphene was originally found as a two-dimensional
carbon nanostructure that was mechanically exfoliated
from a block of graphite.
Still, researchers have recently expanded their studies
into this two-dimensional carbon nanostructure.
Contd...
This molecular structure will take a variety of morphologies, as seen
in Figure 1.
These single-atom carbon layers may take on various morphologies,
such as quantum dots, nanosheets, and nanoparticles, and can be
tailored to produce breakthrough developments.
The use of graphene-based nanomaterials in m edicine is currently
a
hot research subject.
Contd...
Figure 1: (a) when folded into a 0D structure, it forms spherical molecules called fullerenes; (b) when
rolled into a 1D structure, it forms carbon nanotubes; (c) when it forms a single 2D atomic layer, it forms
graphene; and (d) when stacked into a 3D bulk structure, it forms graphite [1]
TREND
S Whether or not graphene ultimately contributes to
nanoscale transistors, its introduction in the early
stages of the post-silicon period is historic.
There has been interesting in this promising material
from the scientific community.
Contd..
.
It could help Moore's law surpass the technical barrier before approaching
the fundamental limit of the single-molecule level.
Graphene is now a popular research subject, with a clear promise to meet the global
demand for breakthrough technology.
The number of graphene-related publications for the last six years is given in (Fig. 1).
Contd...
Fig. 1. Total number of publications in 2015-2021 as per Google scholar information (keyword: Graphene)
THE GRAPHENE
SUThRe GVraEphYene Council's survey report was released
on January 4, 2021 [2].
The Graphene Council is the largest
wcoomrldm'sunity devoted to graphene
advanced and productionr,elaatend
commercial musaet.erials science,
The link over 30k materials experts,
professionals, architects, and t echnolo
goyf daecavedleompeiar sa:nrdo uthgeh loyther 2/13/ 3from the industry.
Contd...
This survey received responses from over 800 people and
organisations.
According to the survey, graphene has an extraordinarily broad
spectrum of possible uses, owing to its remarkable range of
performance characteristics.
The survey respondents were divided into categories depending
on how people use graphene, such as processing graphene, using
it in an application, testing, designing potential applications, etc.
Contd...
Fig 2 depicts the proportion of survey respondents who identify as working people.
On looking at research activities, it is observed that academic organisations are studying
graphene account for 19% of all respondents, or 78% of the more than 250 academic
organisations that took part in the study.
Commercial organisations (which include both producers and users of graphene materials)
also r esearch graphene for 17% of all responses.
Contd...
The Graphene Council is well aware of the significant volume of
research conducted by the private sector to create real-world
commercial applications.
According to the survey findings, 19 % of commercial institutions
and 14 % of academic organisations seek application growth,
for a total of 33%, just marginally lower than study activities.
Contd...
If graphene progresses, the percentage of companies focusing on application
growth will outnumber those focusing on analysis, particularly as production
size, handling, dispersion, and pricing become more resolved.
Graphene producers were also split into industrial and research, with 17% and
12 % of the market.
Industrial and academic graphene suppliers accounted for 17% and 12% of total
graphene production, respectively.
While many academic institutions manufacture graphene, the material is mainly
used for internal analysis or application production.
Contd...
On the commercial side, it's worth noting that some commercial producers don't
sell graphene, preferring to use it entirely in value-added products or
masterbatch formulations.
A significant 10% of survey participants described themselves as “Intermediary”
organisations, including toll processors, functionalization services suppliers, and
other mechanisms aimed at improving graphane.
Finally, 4% of our survey respondents work for governing authorities, including
standards-setting associations, regulatory commissions, and government
departments.
Contd...
Fig. 2. The percentage of survey respondent corresponding to the society
Graphene is the only substance that can claim to be
the thinnest, toughest, most thermally conductive,
most electrically conductive, have the highest barrier
properties, and have other positive characteristics
all at the same time.
Coatings [3], energy harvesting [4], textiles [5],
filtration, composites, printed electronics, biomedical
[6], EMI insulation, corrosion prevention, films,
lubrication, heat transport, among many other uses,
are among the many.
Contd...
As for efficiency increases, manufacturing are exponentially scaled, the
processing is perfected, and better pricing renders this incredible material
affordable in 2021; graphene is reaching an inflexion point.
The varieties of graphene for different applications are shown in table 1.
Table 1. Graphene for various applications [2]
THE USE OF
GRA vAerPy sHmaEll aNmoEunt of graphene (less than 1% by
weight, or even tenths or hundredths of a per cent by
weight) may significantly affect efficiency.
The graphene's work is influenced by its morphology,
chemical groups, surface chemistry,
functionalization, and form element (powder, paste,
or solvent).
Choosing the best graphene for a given application is
important.
Contd...
The synthesis and storage of graphene are crucial to its application's
performance (i.e. dispersion techniques)
Although graphene is now readily accessible, it takes special handling
capabilities, so collaborating with people who have these abilities is important.
For most applications, even at very low loadings in terms of percent by weight,
substantial amounts of graphene will be needed.
As a result, it's critical to partner with manufacturers and vendors who can scale
demand while maintaining high quality. Table 2 summarises some of the
ground-breaking efforts in graphene synthesis.
Contd...
Table 2. Comparison of graphene synthesis methods and their various applications
FUTURE
SCGOrapPheEne is a fascinating substance that may be used
in nanotechnology.
Graphene has outstanding electrical, optical,
mechanical, thermal, and chemical properties,
indicating that it has great potential for use as a
transparent electrode, FETs, gas sensors, energy
storage systems such as supercapacitors a catalyst.
New graphene synthesis methods are being
d eveloped to achieve favourable electrical
properties.
Contd...
As a designer product, graphene is expected to be soon able to replace silicon-based
electronics.
Future graphene-based electronic devices are supposed to operate at a very high
speed, be chemically inert, and be environmentally sustainable.
This post gave a broad description of graphene as well as a look at recent
innovations.
Given graphene's enormous ability and one-of-a-kind properties, it would be more
appropriate to inquire, "What science and engineering problems exist for which
graphene might have a solution?" rather than "What are the actual applications of
graphene?"
CONTACT
US
UNITED KINGDOM
+44-1143520021
INDIA
+91-4448137070
EMAIL
[email protected]
Comments