Brian Clegg's The Graphene Revolution introduces the science and discovery of graphene for general readers and students. This Hot Science volume explains how an atom-thick sheet of carbon behaves, why its properties interest researchers, and what production challenges stand between laboratory experiments and applications in electronics, energy, and other fields.
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A sticky-tape experiment provides the starting point for this account of two-dimensional materials. Clegg connects graphene's carbon structure with its electrical, thermal, mechanical, and optical behavior, explaining the underlying science without requiring readers to begin with a specialist physics background. The discovery story gives context to the laboratory findings.
Applications discussed include flexible electronics, transistors, filtration membranes, and energy-storage devices. The book also examines the difficulty of producing large sheets with suitable quality, distinguishing scientific possibilities from manufacturing problems. Its consideration of other two-dimensional materials extends the discussion beyond graphene itself. Science enthusiasts, teachers, and introductory physics or engineering students can use it as a focused introduction to materials research.
A strip of sticky tape starts the story of a material one atom thick. Brian Clegg explains how graphene's carbon structure produces its remarkable electrical, thermal, mechanical and optical behaviour, then asks what stands between laboratory samples and real applications in electronics, filtration and energy storage.
The account begins with the sticky-tape experiment and the discovery of two-dimensional materials. Clegg connects graphene's carbon structure to its electrical, thermal, mechanical and optical behaviour, explaining the science without assuming a specialist physics background. The discovery story supplies context for the laboratory findings. Applications discussed include flexible electronics, transistors, filtration membranes and energy-storage devices, and the book also examines how hard it is to produce large sheets of suitable quality, separating scientific possibility from manufacturing reality. Consideration of other two-dimensional materials carries the discussion beyond graphene. Science enthusiasts, teachers and introductory physics or engineering students can use it as a focused introduction to materials research.
The book opens with the experiment that isolated atom-thick carbon, using the discovery story to show how a simple method produced a new class of material. That narrative gives readers a concrete entry point before the physics is unpacked.
Graphene's behaviour is traced to its carbon lattice. Clegg connects that structure with electrical, thermal, mechanical and optical properties, explaining why a one-atom-thick sheet behaves so differently from familiar forms of carbon.
The discussion widens from graphene to other two-dimensional materials. This extension shows that graphene is one member of a broader family, and it helps readers place the material's promise within an emerging area of research.
Producing large sheets with suitable quality is presented as a serious obstacle. The book separates what is possible in a laboratory from what can be manufactured reliably, and it treats this gap as central to whether applications become real.
Flexible electronics, transistors and filtration membranes illustrate what researchers hope graphene can do. The examples are grounded in the material's properties, so the reader can see why its thinness and conductivity suggest particular uses.
Energy-storage devices round out the applications, while the book keeps reminding readers that promise is not the same as product. It uses energy storage and other fields to show how scientific excitement must be tested against manufacturing and performance constraints.
General science readers, teachers and introductory physics or engineering students who want an accessible introduction to graphene, two-dimensional materials and the gap between discovery and production.
Edition, audience, and study-guide details at a glance.
Brian Clegg's The Graphene Revolution introduces the science and discovery of graphene for general readers and students. This Hot Science volume explains how an atom-thick sheet of carbon behaves, why its properties interest researchers, and what production challenges stand between laboratory experiments and applications in electronics, energy, and other fields.
General science readers, teachers and introductory physics or engineering students who want an accessible introduction to graphene, two-dimensional materials and the gap between discovery and production.
Yes. This page includes an original study guide with six thematic sections, key takeaways, and a topic map for structured reading.