Canadian Manufacturing: Building Value through Graphene Material Innovation

The single layer of carbon atoms offers both electrical and thermal conductivity, along with mechanical strength, flexibility and a high surface area, making graphene a material of great interest for industry. Requirements for the production of dependable commercial materials are more than laboratory production in turning those properties.

The manufacturers need to monitor their products' quality, select appropriate manufacturing processes, and modify their formulations for various applications. The advanced graphene materials manufacturer is serving an industrial market that ranges from energy storage to composites to electronics and protective coatings in Canada.

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Industrial Demand Is Broadening Graphene Applications across Canada

Graphene is not an all-purpose single ingredient. It is affected by the level of defects in the finished product, particle size, particle shape and the number of layers in the product. For instance, graphene nanoplatelets and reduced graphene oxide can be used in various applications, such as enhancing the conductivity and reinforcing polymers or changing barrier properties. Manufacturers need to know the performance requirements of an application before deciding on a grade. The properties required for a conductive coating could be different from those required for a composite for structural reinforcement.

The topic of energy storage is of interest. Graphene can be used in battery electrodes, as conductive additives and as supercapacitor materials to help create an electrical pathway and determine the structure of the electrodes. Its contribution is dependent on the dispersion and interactions with other components. By providing consistent grades and application-specific dispersions, manufacturers can support the development process and then collaborate with customers to evaluate the performance of these additives in full electrode formulations.

Applications such as conductive inks, coatings, and electronic materials also demand stable graphene formulations. Applications include antistatic surfaces, electromagnetic interference shielding, printed electronics and sensors. Both require varying levels of conductivity, flexibility, adhesion and durability. Material suppliers can provide product developers with clear technical information and guidance on coating techniques and substrate compatibility, as well as curing conditions.

Improving Production Consistency and Commercial Readiness

One of the key manufacturing challenges is to scale up graphene production without compromising on quality. Materials with varying characteristics are produced by different production routes, and changes during the process can impact the conductivity, purity or particle dimensions. Controlled parameters, validated procedures and batch testing are ways that manufacturers can control variability. Raman spectroscopy, microscopy, surface area analysis and electrical testing help to determine if the material is within specification.

Another practical challenge is dispersion. The graphene sheets can clump and reduce the surface area that is anticipated to provide benefits. Performance could also be impacted by incompatible dispersants or by mixing too aggressively. The use of appropriate carrier systems and the modification of surface chemistry and dispersion techniques for the specific matrix can make the process easier to manage. The adoption of ready-to-use concentrates or masterbatches may make it easier for customers who do not have the equipment needed for handling.

Purchasing decisions are influenced by production economics. A technically sound material may not be able to be used because of its processing demands, consistency of supply, or cost. Optimization of process, efficient use of raw materials and repeatable equipment operation can enhance manufacturing economics. Developers can also work on applications for which a small amount of graphene makes a significant impact rather than assuming that the greater the amount of loading, the better the results.

Advancing Material Innovation and Value across the Supply Chain

Additional development will rely on application-based engineering. Powders can not only be made general purpose, but can be tailored to provide a specific thermal management, conductive reinforcement or barrier grade. Controlling particle properties and surface chemistry assists materials in fitting into the existing manufacturing systems.

The possibilities extend with hybrid materials. The properties of graphene can be combined in various ways with other nanomaterials, carbon additives or traditional fillers to result in properties that no single material may be able to achieve. Formulation should consider interactions, dispersion and cost. Collaborative testing can be used to evaluate combinations from suppliers and customers for long life, processability and performance in operating conditions.

Digital process monitoring can enhance manufacturing control. Changes in mixing, temperature or other conditions can be detected by sensors and production data prior to the occurrence of significant batch variation. Repeatable output is achieved by using statistical process control and quality records that are traceable. Although automation can help to ensure consistency in material handling, technical personnel are still needed to interpret the results and resolve unusual production behaviors.

A Canadian industry-leading graphene materials manufacturer can help facilitate advanced materials research to meet production demands. Collaborations with universities, research centers, equipment suppliers and end users can lead to the testing, development of processes and application validation.

Reliability of material and evidence of performance is key to commercial success. A materials manufacturer that understands the application and maintains process discipline can facilitate the transition from experimentation to consistent materials production. Eventually, the impact of graphene in industry will rely on the level of uniformity and practicality of the materials supplied to the industry that chooses to use it.

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