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The ever-evolving needs and the depletion of resources sourced from fossil fuels indicate the urgent need to pursue sustainable alternatives, inclusive of renewable energy sources and the technology for sustainable storage. To support a sustainable environment, incorporating the use of clean and green material, eco-efficient processes, and the final design analysis is important. At present, battery technology such as graphene material for developing batteries addresses the issues of a sustainable environment. However, there is still a long way to overcome the hurdles on the fundamental level to attain sustainability via the right choice of batteries. 

Challenges that come in the way of a sustainable environment 

Challenges in terms of sustainability can be witnessed all through the process of developing energy storage devices, i.e., batteries. These challenges begin from extracting raw material, the manufacturing process, management and the final execution for use across industries like the automobile industries (e-vehicles), electronic devices, and telecom. Recently, it has come to the notice of various sectors involved in manufacturing battery technology that cobalt material and its potential use present significant concerns in the context of maintaining a sustainable environment and longevity. 

Principles guiding sustainable development and management

Efforts are being consistently made across industries to minimize the manufacturing process’s negative impact that includes the usage of material like cobalt for developing batteries. Focusing on novel designs for the electrodes, alternative materials that can potentially replace cobalt can yield advantages in terms of performance, for example, high energy density, conductivity and surface area. It is also important to understand how certain principles can guide sustainable development and management. These principles could be the reuse of batteries for e-vehicle applications, recovery of the material used by recycling, and allowing for only a minimal quantity of battery material to go under disposal. All these recovery principles cascade the reuse of battery and battery material for energy storage applications that are comparatively less demanding and have the most significant environmental promise.

Additionally, steps such as manufacturing and testing electrode material for performance and efficacy and checking for the battery’s reliability on any natural resources can be done. Advanced tests for diagnosis and techniques that help maintain a sustainable environment must be conducted. Last but not least, novel systems for recycling material like cobalt must be incorporated accompanied with the assessments on both environmental and economic levels. These steps give the right direction to the manufacturing process and empower it to become increasingly inclined towards a sustainable environment. 

Conclusion 

C6 Energy’s Graphene batteries are high-performance and cobalt-free. A carbon-neutral process has been utilized to manufacture these highly efficient graphene batteries for a sustainable environment, making them the best batteries for industry-wide usage.

Batteries have become a significant part of the present-day world and serve as a vital component in numerous devices. However, with the advancements in technology, limitations have come to the forefront, majorly regarding the composition of electrodes in the batteries, hindering innovation instead of enabling it. The conventional lithium-ion batteries have presented sustainability problems, including the deterioration of resources and hazardous impacts to human beings and the environment. As a consequence of this, the focus has now been shifted to developing batteries with materials possessing increasingly desirable characteristics. One example of such a material is graphene. Graphene is a material made of carbon atoms arranged in a honeycomb-like latticed structure, precisely a single atom thick. Its other significant characteristics include a high surface area, high conductivity due to relatively high electron mobility, and high strength due to its internal make-up. All these properties are indicative of the reason behind graphene holding a great amount of potential for application and use in an energy space or energy industry.

Graphene’s present-day manifestation in the energy industry

As per their present-day manifestation, conventional batteries like lithium-ion batteries cannot continue to be used as a primary method of storage of portable energy and are in no way a sustainable energy storage solution. In actual terms, the mere use of rare materials such as lithium for batteries in itself is a violation of the true meaning of sustainability, which is the preservation of resources for use in future. Now that it is clear that the currently used batteries are not a solution for catering long term needs, research has been focusing on developing alternative and more sustainable batteries. Since the material of the batteries makes the most difference, the utilisation of material that is novel yet sustainable can be used to increase the efficacy of battery designs for the energy industry. Graphene as a suitable material for batteries is the newest and the most significant development in the energy space that functions as a one-stop solution for developing batteries in the energy industry.

The unique structure of graphene

Graphene, with its unique foundational structure, has a better surface area coverage and high heat and electrical conductivity, accompanied by other useful properties. The testing of graphene in the electronic and the energy industry has consistently demonstrated improved efficiency while simultaneously addressing the issue of sustainability posed by batteries made of lithium. Functioning is an important factor; however, batteries now play a greater role in our society that make it imperative for them to represent a sustainable technology and take into account the quality of life of future generations.

Conclusion

Graphene’s two-dimensional structure, above all, minimises the slightest of defects that it might possess and has made contributions in terms of quality beyond strength, making it an extremely appealing choice for the energy field. In addition to this, graphene also helps induce traits that are desirable in other combinational materials that can be used in conjunction with graphene to improve the functionality of the batteries. C6 energy focuses on making its contribution to a sustainable energy space through its graphene batteries, which are the most suitable replacement for lithium-ion batteries.

A green economy is one that focuses on reducing the risks associated with ecological and environmental scarcity. A green economy aims at achieving sustainable development without causing any harm to the environment. A battery that is suitable for practical use and, at the same time, is eco-friendly is a holy grail for achieving the goal of a green economy. The hexagonal structure of graphene allows it to display high conductivity, heat dissipation, and longevity properties. The use of graphene batteries for industrial or manufacturing processes that prevent the release of greenhouse gases into the environment is being extensively explored. It will greatly contribute to a green economy. 

Planning developments sustainably with graphene batteries

There have always been disputes in terms of planning the developments in renewable as well as solar energy. By way of using batteries made with graphene, solar energy cells and plants can generate a high amount of efficiency, contributing to a green economy. Replacing conventional batteries with graphene batteries while manufacturing can substantially lead to savings by promoting cost-efficiency. Given the changes in the climate and the negative impacts of the same, the landscape of the green economy is quickly and consistently transforming. Graphene batteries tremendously contribute to this transformation by offering a high thermal and electrical conductivity with remarkable mechanical properties. 

Solutions for attaining a green economy

Graphene, along with its other forms like few-layer graphene composite, provides fast charging offerings and solutions through an increment in the cyclability that makes it the most suitable choice for the electronic vehicle industry and solar industry, both of which make significant contributions to a green economy. There have also been roadblocks and hurdles that come in the way of a green economy. Graphene batteries help in overcoming these roadblocks towards attaining sustainability and a green economy. One important example could be that electric vehicles powered by graphene batteries reduce the carbon footprint and also reduce the emission or re-entrance of greenhouse gases into the atmosphere. 

As part of a green economy, it is essential to promote a competitive type of sustainability necessary for green and clean transport, storage, and consumption that helps achieve climate and carbon neutrality in the future. 

Conclusion 

C6 Energy’s graphene batteries are made with green chemicals and by a way of converting bioinert substances or biomaterial into energy through the production of highly conductive yet highly safe graphene batteries. These batteries are environment-friendly, cost-efficient and therefore, contribute to a green economy, which is significant given the increase in the undesirable climatic changes and deterioration of the ecosystem by processes and technology that causes high amounts of carbon emissions. 

The carbon footprint terminology represents the quantity of carbon that is emitted into the environment. Reducing the carbon footprint through novel and innovative graphene battery technology is a revolutionary step that allows for maintaining a clean environment and living within the means available on the planet. Since the discovery of graphene, its demand has grown at an extensively high rate due to its remarkable properties. The carbon atoms arranged in a single graphene layer make it approximately a hundred times stronger than steel. In addition to this, graphene is the best heat conductor in the world, ultimately making graphene battery technology extremely efficient. Transformation of the carbon found in biomaterial to graphene prevents the carbon from entering back into the atmosphere as the biomaterial undergoes decomposition. A number of carbon-based assets in the form of gas, oil and coal have been extracted, but only in the case of graphene, the production is fixed, wherein there is no re-entrance into the carbon cycle. This is the initial step in cutting down carbon emissions into the environment with graphene battery technology. 

Righteous execution of battery manufacturing processes to reduce carbon emissions

The idea of converting bio-driven material into graphene is not new, but the righteous execution of processes that help achieve the conversion, in reality, is new. Utilising and scaling up procedures like the flash graphene methodology as part of the graphene battery technology can revolutionise the graphene material with extraordinary properties from being restricted to niche applications. In terms of the climate, these reduced carbon emissions play an important role in improving the overall quality of the environment. The graphene battery technology shows an increment of fifty per cent in terms of longevity compared to traditional batteries like lithium-ion batteries.

Reduced carbon footprint through graphene battery technology 

In addition, graphene batteries reduce the carbon footprint by approximately twenty-five per cent and are extremely lightweight. Over time, there have been two main problems that have been known to be associated with conventional batteries. The first one being the poor conductance of electricity and the tendency to deform physically on discharging that ultimately leads to the customers repetitively buying the batteries, which eventually leads to more production with a greater amount of carbon being emitted into the environment hindering its quality. Graphene batteries, on the other hand, made with graphene and other nanomaterials like graphene oxides, provide effective solutions to such problems posed by conventional battery technology, as they are highly conductive to electricity flow and also lasts longer. 

Conclusion 

C6 Energy’s graphene batteries aim to reduce the carbon footprint by a value of 90 per cent by the year 2030 and create a positive yet powerful impact by manufacturing battery technology that is in support of a cleaner and greener environment.