Raymond Gibbs | Graphene@Manchester: Why is $100/kg graphene actually cheaper than $10/kg options in industrial manufacturing?
00:11:52 - 00:12:47
Other snippets from this talk
Summary of the clip:
Why is $100/kg graphene actually cheaper than $10/kg options in industrial manufacturing?
The commercial viability of graphene depends entirely on understanding the price-performance ratio rather than the raw cost per kilogram. Many procurement departments make the mistake of choosing a lower-cost material, without realizing that its required loading percentage dictates the final unit cost.
In industrial applications, a cheap carbon additive might require a high loading rate of 10% to achieve the desired property enhancement. Conversely, a high-quality, specialized graphene can achieve superior mechanical or electrical properties at a loading of less than 0.1%, drastically altering the economic equation.
Evaluating the total cost per volume or load reveals that premium materials are often the more cost-effective option. For advanced nanomaterials like graphene, less is truly more, enabling manufacturers to avoid capital-intensive equipment modifications while reducing overall formulation costs.
In this short video, you can learn:
* Why low-cost raw materials often yield more expensive final formulations due to high loading requirements.
* The economic threshold where "less is more" in graphene loading percentages (under 0.1%).
* How to align technical performance metrics with financial constraints to win over the C-suite.
📋 **Clip Abstract**
Raymond Gibbs explains the critical price-performance dynamics that govern the adoption of advanced materials like graphene in commercial formulations. By contrasting $10/kg materials at high loading with $100/kg alternatives at ultralow loading, he demonstrates how high-quality nanomaterials reduce overall manufacturing costs.
#GrapheneFormulation, #UltralowLoading, #PercolationThreshold, #NanomaterialDispersion, #ConductiveInks, #PolymerNanocomposites
This is a highlight of the presentation:
More Highlights from the same talk.
00:17:29 - 00:18:30
Can 2D molybdenum disulfide membranes survive extreme chemical environments that dissolve standard lab equipment?
Can 2D molybdenum disulfide membranes survive extreme chemical environments that dissolve standard lab equipment?
While graphene dominates the headlines, other 2D materials like molybdenum disulfide (MoS2) are demonstrating extraordinary properties in extreme industrial applications. Transition metal dichalcogenides (TMDs) offer unique transport and chemical resistance characteristics that make them highly suited for next-generation separation technologies.
In this segment, Raymond Gibbs highlights a breakthrough MoS2-based membrane technology designed for ultra-harsh filtration environments. He shares a striking validation anecdote: during initial testing, the chemical environment was so corrosive that the host Petri dish completely dissolved, yet the 2D membrane remained entirely intact.
This level of robust chemical stability opens up revolutionary pathways for industrial wastewater treatment, gas separation, and petrochemical processing. Leveraging the unique molecular structure of non-graphene 2D materials is now a major frontier for high-value commercial spin-outs.
In this short video, you can learn:
* The high-performance capabilities of molybdenum disulfide (MoS2) as a rival and complement to graphene.
* Why 2D material membranes can outperform standard polymeric and ceramic filtration systems in highly corrosive environments.
* The scaling and funding pathway for university spin-outs targeting multi-billion dollar filtration markets.
📋 **Clip Abstract** Raymond Gibbs introduces a highly robust 2D molybdenum disulfide (MoS2) membrane technology designed for extreme filtration environments. He illustrates its extreme durability with a test case where the membrane survived a corrosive environment that dissolved its own testing container.
#MolybdenumDisulfide, #TransitionMetalDichalcogenides, #2DMembranes, #ExtremeFiltration, #IndustrialSeparation, #GasSeparation
00:13:45 - 00:14:38
Has the era of "Just-in-Time" logistics died for advanced materials and high-tech supply chains?
Has the era of "Just-in-Time" logistics died for advanced materials and high-tech supply chains?
Global disruptions have fundamentally rewritten the playbook for advanced materials procurement, shifting industrial priorities from cost-optimization to structural resilience. The traditional "just-in-time" supply chain is rapidly giving way to a "just-in-case" philosophy that prioritizes security of supply.
For advanced materials like graphene and 2D compounds, having single-source international supply chains presents an unacceptable operational risk. Industrial buyers now demand dual-sourcing strategies and robust, in-country capabilities to shield production lines from geopolitical and logistics shocks.
This structural pivot is driving regional collaboration and accelerating consolidation across the advanced materials sector. Companies that fail to establish robust, verifiable, and local supply partners will find themselves locked out of high-value industrial integrations.
In this short video, you can learn:
* Why the global supply chain strategy has permanently shifted from "just-in-time" to "just-in-case" logistics.
* The rising necessity of in-country production capabilities for advanced engineering materials.
* How supply chain regionalization is triggering market consolidation among graphene manufacturers.
📋 **Clip Abstract**
Raymond Gibbs outlines how post-pandemic disruptions have forced a permanent shift in how industries source advanced materials. He explains the transition from lean logistics to localized, highly robust supply partners, which is driving industry-wide consolidation.
#GrapheneManufacturing, #TwoDimensionalMaterials, #SupplyChainResilience, #JustInCaseLogistics, #PrintedElectronics, #FlexibleElectronics