Insights and research from the world’s leading supplier of niobium-based anode materials
LTO vs. Niobium
One key advantage of XNO® is its lower environmental impact compared to lithium titanate (LTO) anodes. Independent research conducted by Ghent University found a significant 51% difference in global warming potential (GWP) between the two materials. This makes XNO® a favourable choice for OEMs and cell manufacturers looking to meet carbon neutrality demands and reduce their environmental footprint.
We’ll discuss the following in this guide:
Choosing battery longevity
The choice of materials is crucial for top-notch performance in lithium-ion batteries. Echion Technologies brings Niobium-based XNO® into the spotlight, ready to be compared with the established Lithium Titanate (LTO).
While LTO has been a go-to choice, XNO® offers similar attributes.
Safety
Quick charging
Long cycle life
XNO® stands out in one distinct area; it has almost double the energy density of leading LTO cells. This makes it a great option, especially for heavy-duty batteries in commercial and industrial use.
What is LTO?
Lithium Titanate (LTO) is a commonly used anode material in battery technology. It is known for its highly desirable properties and unique characteristics. LTO is composed of:
Lithium
Oxygen
Titanium
LTO anode materials offer exceptional performance and reliability in battery technology. Their distinctive crystalline structure contributes to their excellent electrochemical performance. With their widespread applications and relevance in the battery industry, LTO significantly enables efficient and sustainable energy storage solutions.
What is Niobium?
Niobium is a chemical element with the symbol Nb and atomic number 41. In battery chemistry, it has emerged as a promising candidate for anode material due to its unique properties. Niobium offers several potential advantages that enhance the performance of battery cells.
Enhanced Stability: Niobium's excellent structural stability prevents electrode degradation during charge and discharge cycles, ensuring prolonged cycle life and battery longevity.
Increased Capacity: Its high energy density allows for the storage of a larger charge, resulting in improved battery performance, meeting the demands of power-intensive electronic devices.
Faster Charging: Niobium's high ionic conductivity and excellent electrochemical behaviour enable faster charge acceptance, which is crucial for applications requiring quick energy replenishment.
Advantages and disadvantages of LTO vs. Niobium
Lithium-titanate (LTO) active anodes address graphite and graphite-silicon's fast charge and cycle life limitations. However, energy density limitations make them challenging to package in mobile industrial and commercial applications.
Niobium-based anode materials, such as Niobium Titanium Oxide (NTO) possess higher volumetric energy densities, storing more energy per unit volume. This makes them particularly useful in applications where space is limited. Niobium-based materials also demonstrate excellent stability, preventing electrode degradation during charge and discharge cycles.
Comparative global warming potential (GWP) for XNO, LTO, and graphite active materials.
Lithium-titanate (LTO)
Advantages
LTO is preferred for high-power, long-life, safety-conscious applications.
It charges at 4-20C, with a long lifetime of 10,000-20,000 cycles.
Compared to graphite, it performs better in low (-30°C) and high (60°C) temperatures.
LTO's high operating voltage (1.55V vs Li/Li+) makes it safer than graphite or silicon-based anodes.
Eliminating the conditions leading to lithium dendrite formation makes LTO less likely to have a significant SEI.
The cells’ long lifetime stems from its near-zero lattice strain, which eliminates failure modes associated with electrode swelling.
Disadvantages
Due to their low ionic and electrical conductivity, LTO materials must be highly engineered to achieve these performance characteristics.
LTO’s primary drawback is its low energy density at the cell level (up to 230Wh/L).
LTO-based cells suffer from gas generation and build-up during cycling, causing cell swelling at high temperatures unless electrolyte additives and protective coatings are used. As a result, cell-level costs increase.
Niobium-based active anode materials
Advantages
Niobium (Nb) has a two-electron redox process (Nb5+ to Nb3+), enabling high specific capacities at moderate operating voltages (~1.6V), avoiding lithium plating safety concerns.
It’s abundant, non-toxic, chemically stable, and environmentally sustainable to source.
Supply chain design provides greater price stability than other volatile battery feedstocks like cobalt and nickel.
Disadvantages
Full commercial deployment and end-user uptake of Nb anodes in Li-ion cells, particularly in e-mobility, have yet to be realised.
XNO key features and benefits
Stable to air, water, and heat, with a long shelf life.
Compatible with both NMP and aqueous electrode preparation methods.
Compatible with various cathode materials (NMC, NCA, LNMO).
High electrode density (3g/cm), with low porosity achievable (<30%).
Structural and chemical stability gives a long cycle life.
Low carbon footprint from the material (~2x lower than LTO or graphite).
Recoverable at the end of life.
Non-toxic and not classified as a dangerous good or substance.
Anode performance summary*
Table 1: Comparison of anodes for Li-ion batteries
| XNO | Graphite | LTO | Silicon | Li metal | |
|---|---|---|---|---|---|
| Charge Timeto 80% SoC CC (mins) | 3-10 | 20-60 | 3-10 | 10-60 | 15-60 |
| Cycle Life (cycles) | Over 10,000 | 500-5,000 | Over 10,000 | 500-1000 | 200-500 |
| Power Density | +++ | ++ | +++ | ++ | ++ |
| Safety | +++ | + | +++ | - | - |
| Temperature range during charging (oC) | -40-60 | -10-60 | -40-60 | -10-60 | -10-60 |
| Cell Energy Density (Wh/L) | Up to 425 | Up to 600 | Up to 230 | Up to 1000 | Up to 1000 |
| Ready for market? | Now | Now | Now | 2025 | 2030+ |
*Dependent on factors like cell design and cycling conditions
Explore XNO® by Echion
A full lifecycle analysis of XNO was completed in 2023 and published in the Journal of Sustainable Materials and Technologies. Compared to LTO batteries, XNO offers a 51% reduction of global warming potential (GWP) on the material production level. It offers 61% lower GWP than LTO batteries on the energy delivery level.
Based on publicly available figures, that also represents a 64% reduction compared to graphite. As markets aim to lower their kgCO2e/product further, selecting the right active anode material is important. This study demonstrates that XNO helps achieve this objective.
Explore the possibilities and join us in revolutionising the battery industry >
XNO® whitepaper
This whitepaper explores the scientific rationale for XNO’s performance edge over other chemistries. For cell manufacturers, it’s a case for adopting a new battery chemistry for future product development.
Niobium uses and applications
Niobium, a versatile transition metal, has found numerous uses and applications across various industries. Its exceptional properties make it highly sought after, particularly in the field of battery technology.
In this guide we’ll discuss the following:
One of Niobium’s main uses is as an alloying element in steel products, where the addition of a very small amount (~0.1%), produces a large performance improvement, enabling stronger and safer steel structures. More recently, niobium has been used in new applications, including energy storage.
Niobium-containing materials are proving to have a significant impact on the performance of batteries, greatly enhancing their storage and power capacity and our XNO® technology is one of the most noteworthy developments.
We outperform typical lithium-ion batteries in terms of performance and efficiency by leveraging its unique properties.
History of Niobium Discovery and Use
Niobium, a chemical element with the symbol Nb, has a fascinating history of discovery and use. Its significance in various industries, including
Stainless steel
Superalloys
Niobium was first discovered in the late 18th century by English chemist Charles Hatchett. He initially named it "columbium" to honour Christopher Columbus. However, confusion prevailed, and it wasn't until the mid-20th century that the element was officially renamed niobium.
The Importance of Choosing the Right Anode Material
Choosing the right anode material is a must in niobium battery technology for optimising performance and efficiency. The anode plays a critical role in the battery's electrochemical reactions, impacting the overall battery performance and its ability to store and deliver energy effectively.
Several key factors need to be considered when selecting anode materials in niobium batteries.
Corrosion resistance maintains anode stability, minimising degradation and extending battery performance.
Stability is essential for the anode material to endure charge cycles, ensuring consistent battery performance over time.
High conductivity in the chosen anode material enables efficient electron transfer, reducing energy losses and enhancing overall battery efficiency.
These qualities make niobium an ideal option for anode materials, leading to longer battery lifespans, improved energy storage, and enhanced overall battery efficiency.
Types of Niobium Alloys
Niobium alloys, comprising niobium as the primary element along with elements like:
Iron
Titanium
Zirconium
Tantalum
These alloys, which include High-Strength Low-Alloy (HSLA) columbium-vanadium structural steel and niobium-titanium alloy, are used in infrastructure, superconducting magnets, aerospace, and superalloy production, significantly contributing to technological advancements and industrial development.
Some of the various applications of niobium alloys include:
1. Stainless Steels
Niobium enhances stainless steel with superior corrosion resistance and mechanical properties, ideal for various applications in buildings and bridges.
2. Refractory Metals
Niobium-based alloys excel in extreme conditions in industries such as aerospace and nuclear reactors due to their heat and corrosion resistance properties.
3. Niobium Compounds and Minerals
Niobium compounds, including niobium oxide and lithium niobate, are essential in various industries for corrosion resistance and electrical conductivity.
4. Formation of Niobium Meta
Niobium is extracted from ores like columbite and pyrochlore through a multi-step process, resulting in the production of niobium metal for industrial applications.
5. Layered Niobium Sulfide
Layered niobium sulfide contributes to the mechanical properties and corrosion resistance of stainless steel alloys and superalloys, crucial in industries such as steelmaking and electrical capacitors.
6. Anodised Niobium Oxide Films
Anodised niobium oxide films offer exceptional corrosion resistance and electrical conductivity, making them valuable for aerospace components, electronic devices, and optical industries.
Uses of Niobium and its Applications
Niobium is widely used in a variety of fields due to its incredible corrosion resistance and electrical conductivity. Which highlights its critical importance in maintaining protection and great performance.
Gas Pipelines: Niobium's high melting point and corrosion resistance ensure efficient and safe gas transportation in pipelines.
Nuclear Reactors: Its corrosion resistance and thermal conductivity contribute to safe operation within nuclear reactors.
Lithium Niobate: Used in electro-optical modulators and piezoelectric transducers in various industries, including electronics and telecommunications.
Magnetic Fields: Niobium's superconductive properties contribute to stable magnetic field production in healthcare and scientific research.
Thermal Expansion: Niobium alloys' low coefficient of thermal expansion ensures dimensional stability in applications where precise tolerances and high-temperature processing are crucial.
Niobium's Versatility Across Industries
Niobium's unique properties, such as high strength and low thermal expansion, make it indispensable in the aerospace and energy industries. Its applications extend to nuclear reactors, architectural requirements, and magnetic fields, highlighting its versatility across various sectors.
Electrifying heavy-duty applications
Echion’s battery anode materials deliver exceptionally long cycle life, superfast charging capability, and outstanding safety. This leads to uniquely high operational efficiencies and record low total cost of ownership, which enables end users to sustainably electrify heavy-duty transport and industrial applications.
Aerospace
In aerospace, niobium's heat resistance benefits jet engines and aero-engine parts, ensuring performance in extreme conditions.
Electronics
Niobium enhances capacitors, electronic tubes, and optoelectronics, improving functionality and reliability in electronic devices.
Superconducting Materials
Niobium-based superconductors power MRI machines and generators, aiding medical diagnostics and energy efficiency.
Atomic Energy
Niobium's thermal conductivity and corrosion resistance are crucial for nuclear reactors and heat exchangers, ensuring safety and efficiency.
Medical
Niobium's corrosion resistance and biocompatibility make it suitable for medical implants and radiation shielding materials, enhancing patient safety.
Chemical
Its unique chemical properties contribute to advancements in semiconductors, batteries, and superalloys.
Foundry
Niobium improves wear resistance and modifies graphite sheets in cast iron, enhancing automotive component durability.
Lighting
In sodium vapour street lamps and electrical applications, niobium supports efficient lighting technology.
Optical
Niobium's contribution to lenses with enhanced light transmittance improves optical device quality.
Benefits resulting from XNO®
| Improved Quality | Enhanced quality and performance of various products. |
|---|---|
| More Efficiency | Facilitates the development of smaller and more efficient capacitors. |
| Higher Strength | Contributes to the production of high-strength, low-alloy steels. |
| Greater Resistance | Provides heat resistance and thermal expansion control. |
| Technology advancement | Contributes to the overall advancement and efficiency of various processes. |
The Role of Niobium in Sustainable Batteries
The role of niobium in sustainable batteries is significant due to its corrosion-resistant properties and high melting point. These characteristics make niobium an ideal material for improving the performance and longevity of batteries.
Environmental Impact
Niobium contributes to the reduction of the carbon footprint of batteries by enabling the production of long-lasting batteries with increased energy storage capacity, aligning with the sustainable goal of minimising environmental impact.
Waste Reduction
By enhancing battery performance and lifespan, niobium helps decrease the frequency of battery replacements, thereby reducing resource consumption and minimising waste.
Echion's Niobium-Based Anode Materials
Echion has harnessed the exceptional properties of niobium to create advanced anode materials with far-reaching benefits across various industries. This enables us to enhance energy storage applications such as batteries, capacitors fuel cells and catalysts.
Through careful composition adjustments, these anode materials offer improved capacity, durability, and efficiency as well as higher energy density leading to more compact batteries.
Safe, fast-charging, long-life Li-ion batteries with XNO® anode materials >
How XNO® transforms mining
The advancement of modern technology has become critical in the attempt at sustainable mining practices. With the mining sector keen to decarbonise, electrifying its operations, particularly large transport vehicles, has become an urgent priority.
In this guide, we’ll discuss the following:
Introducing Echion Technologies' ground-breaking XNO® anode material, powered by Niobium. This breakthrough has the potential to change the mining industry by providing comparable possibilities for fast-charging capabilities and reconsidering the context of modern mining.
Challenges in the Mining Industry
The mining industry faces numerous challenges that require innovative solutions.
| 1. Safety Prioritisation | 2. Technology Integration | 3. Focus on Electrification |
|---|---|---|
| The mining industry grapples with safety issues, including cave-ins, explosions, and toxic gas exposure, making worker safety a top priority. | Advanced mining technologies like digital twin systems and predictive analytics offer remote monitoring, enhancing safety by minimising the need for workers in hazardous environments. | The industry's recent focus on electrification and advanced battery technologies underlines its commitment to reducing emissions and fostering a safer working environment for miners. |
Role of Advanced Technologies in Mining
Advanced technologies in mining are increasingly vital as the industry strives for efficiency, sustainability, and enhanced productivity on its way to decarbonisation. With the integration of digital solutions and automation, mining companies can optimise their operations by
Reducing costs
Improving safety
Minimising their environmental impact.
Transformational Impact
Edgardo Pabst Chimenti highlights the transformative impact of modern mining technology, showcasing the importance of digital solutions and automation in enhancing operational efficiency.
Enhanced Safety Measures
Technologies such as digital twin simulations, predictive analytics, and autonomous mining machines enable real-time monitoring, proactive maintenance, and better risk assessment, enhancing safety measures within mining operations.
As the mining industry continues to evolve, the adoption of advanced technologies will play a crucial role in shaping a more sustainable and efficient future for the sector.
What are XNO® Anode Materials?
XNO® anode materials are innovative and revolutionary components that play a crucial role in the mining industry.
Fast-Charging Capabilities
XNO® anode materials enable mining machines to recharge quickly, reducing downtime and increasing overall productivity. This efficiency greatly enhances the performance of mining operations, allowing for more streamlined processes.
Longer Cycle-Life
XNO® anode materials have a longer cycle-life, ensuring that mining equipment can be used for extended periods without the need for frequent replacement, resulting in cost savings for mining companies.
Factors Affecting Mining Machinery Efficiency
Several key factors significantly impact the efficiency of mining machinery, leading to improved productivity and reduced downtime.
Equipment Maintenance
Regular maintenance and servicing of mining machinery are essential to ensure optimal performance.
Training and Skill Development
Comprehensive training programs and ongoing skill development initiatives are crucial for enhancing operator competency.
Technology Integration
Integrating modern mining technology into machinery can significantly improve efficiency.
Environmental Factors
Implementing appropriate measures to address environmental challenges can help maintain optimal machinery performance.
How to Improve Performance and Sustainability
To improve the performance and sustainability of mining operations, many key strategies can be implemented.
| Optimising Maintenance Using Technology | Leveraging advanced technologies such as sensors and data analytics can help in optimising maintenance activities effectively. |
|---|---|
| Implementing Automation | Automation technologies such as autonomous mining machines and conveyor systems can significantly increase productivity and reduce operating costs. |
| Adapting Management Systems | Embracing digital technologies and fostering a culture of innovation and continuous improvement can optimise operations and ensure long-term sustainability. |
Advantages of XNO® for Mining
XNO® is a revolutionary technology that offers several advantages for the mining industry.
1. Increased Operational Efficiency
XNO® enables the creation of highly realistic virtual environments that replicate mining operations, allowing operators to optimise their processes and make informed decisions.
2. Enhanced Safety
XNO® reduces human exposure to hazardous environments through automation and remote monitoring, ensuring the well-being of workers.
3. Improved Sustainability
XNO® supports the implementation of sustainable practices in the mining industry, optimising energy consumption and reducing environmental impacts.
4. Cost Reduction
XNO® enables cost reduction through efficient resource utilisation and optimised processes.
5. Fast-Charging Capabilities
Reduced charging time allows for increased operational uptime, leading to better overall operational efficiency and reduced energy consumption.
6. Longer Cycle Life
Longer cycle life in mining operations minimises downtime and energy consumption, contributing to a smaller environmental footprint and reduced operating costs.
Echion's Commitment to Sustainable Mining Technology
Echion is a leading provider of sustainable battery anode material solutions with the potential to revolutionise the industry.
Our sustainable mining technologies, delivered through our partner CBMM aim to minimise environmental impact and promote the responsible use of resources. We’ll also help mine operators to invest in vehicles that remove diesel emissions, reducing the total cost of asset ownership through minimised maintenance expenses and enhanced operational capability.
Safe, fast-charging, long-life Li-ion batteries with XNO® anode materials >
How XNO® drives sustainability in battery technology
Independent research has found that XNO® has a lower environmental impact when compared to lithium titanate (LTO) anodes when evaluated at a material and cell level. A study by Ghent University, which has been peer-reviewed in the Sustainable Materials and Technologies Journal, found a 51% difference in global warming potential (GWP) in the supply of the two anode materials, in favour of XNO®.
We’ll discuss the following in this guide:
This report provides an overview of sustainable battery technology, including the environmental, social, and economic challenges faced by the battery industry. It also discusses how XNO Anode materials can be used to address these challenges.
What is Sustainable Battery Technology?
Sustainable battery technology is an emerging field that aims to develop battery systems with minimal environmental impact and high energy efficiency. As the demand for batteries increases with the growing adoption of electric vehicles and renewable energy sources, it is crucial to find alternatives to conventional lithium-ion batteries that rely heavily on resource-intensive and environmentally damaging materials.
New technology focuses on developing batteries with
Improved energy density
Longer lifetime
Enhanced recyclability.
By optimising the battery components, such as anode materials and electrolytes, and exploring alternative battery chemistries, researchers aim to create more sustainable and efficient energy storage solutions.
Why is it Important?
Sustainable battery technology is of paramount importance in today's world due to the numerous challenges faced by the battery value chain. The production, use, and disposal of batteries can have significant environmental effects, such as the
Depletion of natural resources
Pollution from mining raw materials
Creation of hazardous waste
To overcome these challenges, battery manufacturers and stakeholders must prioritise environmental, social and governance (ESG) principles throughout the entire battery supply chain. This includes the implementation of sustainable practices, responsible sourcing of raw materials, and ensuring the well-being of workers. By promoting sustainability and addressing ESG challenges, the battery industry can contribute to a cleaner and more socially responsible future.
Sustainability of Currently Available Rechargeable Battery Technologies
Currently, available rechargeable battery technologies play a crucial role in our modern world by powering a wide range of devices, from consumer electronics to electric vehicles. However, the sustainability aspects of these battery technologies are of growing concern due to their impact on the environment, social issues, and economic considerations.
Environmental Impact
The production and disposal of rechargeable batteries can have significant environmental consequences. The extraction and processing of raw materials, such as lithium, cobalt, and nickel, can contribute to habitat destruction, water pollution, and carbon emissions.
Additionally, the disposal of used batteries raises concerns about hazardous waste and the potential for soil and water contamination. Addressing these environmental impact issues is crucial to transition towards more sustainable battery technologies.
Social Issues
The battery industry has faced criticism for labour violations and poor working conditions in areas where raw materials are extracted. This includes concerns over child labour, low wages, and lack of safety measures. Ensuring ethical labour practices and supporting social responsibilities throughout the battery supply chain are essential for sustainable battery technology.
Economic Considerations
Cost-effectiveness and resource efficiency are essential factors in the widespread adoption of sustainable battery technology. Innovations that reduce the reliance on expensive and scarce raw materials, increase battery energy density, and improve recycling efficiency are necessary to create economically viable and sustainable battery solutions.
In conclusion, the sustainability of currently available rechargeable battery technologies requires addressing the above considerations. Only by developing and adopting more sustainable battery technologies can we mitigate the ecological footprint, promote social responsibility, and create a more economically viable and greener future.
The Challenges of Lithium-Ion Batteries
The widespread adoption of lithium-ion batteries has revolutionised the field of rechargeable battery technology. However, these batteries also face significant challenges in terms of sustainability and environmental aspects.
| 1. Environmental Impact During Production | - Extraction and processing of raw materials (e.g., lithium, cobalt, nickel) cause habitat destruction, water pollution, and carbon emissions. - Contributes to environmental degradation. |
|---|---|
| 2. Disposal and Hazardous Waste | - Concerns about hazardous waste and potential soil and water contamination when disposing of used lithium-ion batteries. |
| 3. Recycling Inefficiency | - Lithium-ion battery recycling is not highly efficient due to its complex composition and materials. - A significant portion of batteries ends up in landfills or incineration facilities. |
| 4. Toxic Materials | - Certain battery materials like cobalt are toxic. - Improper handling and disposal can lead to adverse environmental and human health effects. |
| 5. Long-term Sustainability | - Addressing these challenges is crucial for the long-term sustainability of lithium-ion batteries. - Efforts are being made to improve recycling efficiency, reduce toxic materials, and explore alternative eco-friendly battery technologies. |
How can we improve both the Battery Supply and Value Chain
Battery Supply Chain
A battery supply chain involves processes of raw material sourcing, component manufacturing, and battery distribution. It begins with mining for materials like lithium, cobalt, and nickel, which can harm the environment and local communities if not managed responsibly.
Raw materials are then transported to battery manufacturers for processing into battery components, consuming energy and water and raising environmental concerns.
Manufactured batteries are distributed to customers, contributing to greenhouse gas emissions and energy use.
Environmental concerns during raw material extraction include:
Habitat destruction
Water pollution
Indigenous community displacement
Manufacturing can lead to air and water pollution and increased energy consumption. In addition, battery disposal and recycling pose challenges in resource efficiency and pollution control.
Collaboration among stakeholders is vital to promote sustainable practices and reduce environmental impacts in the supply chain. It’s paramount that we should address these concerns, including responsible sourcing, energy-efficient manufacturing, and recycling programs.
Battery Value Chain
The battery value chain involves the interconnected stages of battery production, distribution, and disposal, crucial for sustainable battery technology.
The following stages are included in the table below.
| Raw material extraction | Manufacturing | Distribution | Disposal and recycling |
|---|---|---|---|
| Involves sourcing lithium, cobalt, and nickel, often from environmentally sensitive areas. |
Includes processing materials and assembling battery cells for various applications. |
Transportation to customers contributes to greenhouse gas emissions and energy consumption. | Critical for resource efficiency and pollution control, enabling the recovery of valuable materials and waste reduction. |
The Importance of Collaboration and Sustainability
Stakeholders must collaborate to minimise environmental and social impacts.
Emphasise responsible sourcing, energy-efficient manufacturing, and effective recycling practices.
In conclusion, the battery value chain's comprehensive approach, from raw material extraction to recycling, significantly influences sustainable battery technology. Prioritising collaboration and sustainability is crucial to mitigating the environmental and social impacts across the value chain.
How XNO® Anode Materials Drive Sustainability in Battery Technology
XNO® anode materials are vital for making batteries more sustainable. They help batteries store more energy efficiently and transfer it faster, reducing energy consumption. Unlike traditional materials like graphite, XNO® materials are made using eco-friendly methods, cutting down on environmental harm.
By improving battery life and power, XNO® anodes make batteries last longer, resulting in less waste. They also ensure better performance and safety.
In short, XNO® anode materials improve battery efficiency, lessen environmental impact, and support the shift towards greener battery technology.
Niobium's Role in Sustainable Batteries
Environmental Advantage:
It offers a lower carbon footprint compared to graphite, reducing environmental impact.
Sustainable manufacturing methods minimise waste and support resource efficiency.
Contributing to ESG Principles:
Demonstrates commitment to responsible sourcing and reduced environmental impact.
It enhances battery lifespan, reduces electronic waste, and promotes safer operations.
Niobium's eco-friendly attributes, such as its lower carbon footprint and resource efficiency, make it a key element in sustainable battery technology. By integrating niobium into battery manufacturing, companies actively contribute to ESG principles and support a more sustainable future.
A key element of this sustainable approach is the commitment of Echion’s supplier and processor of niobium, CBNMM, to achieving the highest level of Environmental, Social and Governance (ESG) criteria. This includes site safety, the use of water, consideration of indigenous peoples, other social investments and transparency with listening and dialogue with all stakeholders. These commitments are published in a report to ensure the organisation’s can be viewed and assessed.
A Step Toward Decarbonisation
Reduced Environmental Impact
XNO® demonstrates a 51% lower environmental impact compared to traditional options like LTO and graphite, making it a key player in combatting climate change.
Advancing Decarbonisation
XNO® aids industries in their shift towards cleaner energy sources, significantly reducing the environmental footprint associated with battery manufacturing and usage.
Sustainable Lifecycle
XNO® offers a sustainable alternative in terms of energy consumption and waste production throughout its lifecycle, helping companies meet sustainability targets and comply with regulations.
Enhanced Battery Performance
By enhancing power density and thermal stability, XNO® ensures efficient and reliable operations, reducing the need for frequent battery replacements and lowering electronic waste.
This serves as a significant step towards decarbonisation, providing a sustainable battery technology with a substantially lower environmental impact compared to traditional materials. Its adoption empowers industries to contribute to a greener future while meeting sustainability goals and regulatory requirements.
Reducing Battery Waste
XNO®'s contribution to extending battery life not only reduces replacements but also minimises battery waste, conserves resources, and safeguards the environment.
1. Extended Battery Lifespan
XNO®'s integration in battery production leads to improved power density and thermal stability, enhancing battery performance and reliability.
2. Environmental Impact
Longer-lasting batteries significantly reduce the number of disposals and subsequent environmental burdens, including the risk of toxic materials seeping into the ecosystem.
3. Resource Efficiency
XNO®'s extended battery life cycle helps conserve critical and scarce resources by minimising the demand for raw materials used in battery production.
Future Sustainability Initiatives
Actively supports environmentally friendly battery technology.
Sponsors the Cambridge Climate Society.
It aims to enhance resource efficiency and reduce environmental impact.
Explores alternative battery chemistries for improved sustainability.
Through these efforts, Echion Technologies is making significant strides in advancing the sustainable battery industry and addressing environmental challenges linked to energy storage.
Safe, fast-charging, long-life Li-ion batteries with the XNO® anode materials >