Mobility
Non-Lithium Batteries
Non-Lithium Batteries
[2/10]
SUMMARY
The global dependence on lithium-ion batteries creates major supply chain and ethical risks. This playbook focuses on alternative chemistries like sodium-ion, which use abundant, sustainable materials to create a more resilient and affordable energy storage ecosystem.
Non-Lithium Batteries
[3/10]
CONTEXT
The global transition to electric mobility and grid storage is creating unprecedented demand for batteries, a demand almost entirely dependent on lithium-ion technology.
Non-Lithium Batteries
[4/10]
PROBLEM
Over-reliance on lithium-ion creates critical risks: 1. Geopolitical & Supply Chain: Lithium and cobalt mining is geographically concentrated, creating price volatility and fragility. 2. Environmental & Social Cost: Mining is water-intensive and linked to environmental damage and human rights issues (cobalt). 3. Safety & Material Constraints: Lithium batteries carry fire risks, and raw material shortages are a bottleneck to mass electrification.
Non-Lithium Batteries
[5/10]
SOLUTION
A new generation of batteries using abundant, safer materials is emerging: • Sodium-ion (Na-ion): Uses cheap, abundant sodium. Ideal for stationary storage and city EVs. • Zinc-ion (Zn-ion): Uses a non-flammable water-based electrolyte, enhancing safety. • Iron-Air (Fe-air): Uses iron and oxygen for very low-cost, long-duration grid storage.
Non-Lithium Batteries
[6/10]
CHALLENGES
Commercialization faces key hurdles: 1. Lower Energy Density: Currently heavier than lithium-ion for the same range, making them less suitable for long-range EVs. 2. Performance & Lifespan: Cycle life and performance in extreme temperatures are still being optimized. 3. Manufacturing Scale-up: A parallel manufacturing ecosystem to rival the incumbent lithium-ion industry requires massive investment.
Non-Lithium Batteries
[7/10]
TRENDS
Corporate and national strategies are driving rapid progress: • Sodium-ion Commercialization: Industry giants like CATL and Northvolt are launching their first Na-ion batteries for EVs and grid storage. • Automaker Diversification: Brands like BYD are deploying sodium-ion in entry-level EVs to reduce costs and supply chain risk. • Breakthroughs in Zinc: Companies like Zinc8 are deploying zinc-based batteries for long-duration grid applications.
Non-Lithium Batteries
[8/10]
OPPORTUNITY
The global battery market is projected to exceed $400B by 2030. Non-lithium batteries expand this market by providing "right-sized" solutions for grid storage and city mobility, freeing up lithium for high-performance applications and creating a more resilient, affordable, and sustainable energy storage ecosystem.
Non-Lithium Batteries
[9/10]
THE NEED
To accelerate adoption: • Investors must fund the first commercial-scale manufacturing plants to drive down costs. • Policymakers can create incentives for grid projects using non-lithium tech and support domestic supply chains. • Automakers & Utilities must design applications around the strengths of new chemistries, rather than forcing a direct replacement for lithium-ion.
Non-Lithium Batteries
[10/10]
ACT NOW
Join our community of founders and investors at Evolvia unlocking exponential impact in this and several other emergent spaces.
Non-Lithium Batteries
[2/10]
SUMMARY
The global dependence on lithium-ion batteries creates major supply chain and ethical risks. This playbook focuses on alternative chemistries like sodium-ion, which use abundant, sustainable materials to create a more resilient and affordable energy storage ecosystem.
Non-Lithium Batteries
[3/10]
CONTEXT
The global transition to electric mobility and grid storage is creating unprecedented demand for batteries, a demand almost entirely dependent on lithium-ion technology.
Non-Lithium Batteries
[4/10]
PROBLEM
Over-reliance on lithium-ion creates critical risks: 1. Geopolitical & Supply Chain: Lithium and cobalt mining is geographically concentrated, creating price volatility and fragility. 2. Environmental & Social Cost: Mining is water-intensive and linked to environmental damage and human rights issues (cobalt). 3. Safety & Material Constraints: Lithium batteries carry fire risks, and raw material shortages are a bottleneck to mass electrification.
Non-Lithium Batteries
[5/10]
SOLUTION
A new generation of batteries using abundant, safer materials is emerging: • Sodium-ion (Na-ion): Uses cheap, abundant sodium. Ideal for stationary storage and city EVs. • Zinc-ion (Zn-ion): Uses a non-flammable water-based electrolyte, enhancing safety. • Iron-Air (Fe-air): Uses iron and oxygen for very low-cost, long-duration grid storage.
Non-Lithium Batteries
[6/10]
CHALLENGES
Commercialization faces key hurdles: 1. Lower Energy Density: Currently heavier than lithium-ion for the same range, making them less suitable for long-range EVs. 2. Performance & Lifespan: Cycle life and performance in extreme temperatures are still being optimized. 3. Manufacturing Scale-up: A parallel manufacturing ecosystem to rival the incumbent lithium-ion industry requires massive investment.
Non-Lithium Batteries
[7/10]
TRENDS
Corporate and national strategies are driving rapid progress: • Sodium-ion Commercialization: Industry giants like CATL and Northvolt are launching their first Na-ion batteries for EVs and grid storage. • Automaker Diversification: Brands like BYD are deploying sodium-ion in entry-level EVs to reduce costs and supply chain risk. • Breakthroughs in Zinc: Companies like Zinc8 are deploying zinc-based batteries for long-duration grid applications.
Non-Lithium Batteries
[8/10]
OPPORTUNITY
The global battery market is projected to exceed $400B by 2030. Non-lithium batteries expand this market by providing "right-sized" solutions for grid storage and city mobility, freeing up lithium for high-performance applications and creating a more resilient, affordable, and sustainable energy storage ecosystem.
Non-Lithium Batteries
[9/10]
THE NEED
To accelerate adoption: • Investors must fund the first commercial-scale manufacturing plants to drive down costs. • Policymakers can create incentives for grid projects using non-lithium tech and support domestic supply chains. • Automakers & Utilities must design applications around the strengths of new chemistries, rather than forcing a direct replacement for lithium-ion.
Non-Lithium Batteries
[10/10]
ACT NOW
Join our community of founders and investors at Evolvia unlocking exponential impact in this and several other emergent spaces.
Non-Lithium Batteries
[2/10]
SUMMARY
The global dependence on lithium-ion batteries creates major supply chain and ethical risks. This playbook focuses on alternative chemistries like sodium-ion, which use abundant, sustainable materials to create a more resilient and affordable energy storage ecosystem.
Non-Lithium Batteries
[3/10]
CONTEXT
The global transition to electric mobility and grid storage is creating unprecedented demand for batteries, a demand almost entirely dependent on lithium-ion technology.
Non-Lithium Batteries
[4/10]
PROBLEM
Over-reliance on lithium-ion creates critical risks: 1. Geopolitical & Supply Chain: Lithium and cobalt mining is geographically concentrated, creating price volatility and fragility. 2. Environmental & Social Cost: Mining is water-intensive and linked to environmental damage and human rights issues (cobalt). 3. Safety & Material Constraints: Lithium batteries carry fire risks, and raw material shortages are a bottleneck to mass electrification.
Non-Lithium Batteries
[5/10]
SOLUTION
A new generation of batteries using abundant, safer materials is emerging: • Sodium-ion (Na-ion): Uses cheap, abundant sodium. Ideal for stationary storage and city EVs. • Zinc-ion (Zn-ion): Uses a non-flammable water-based electrolyte, enhancing safety. • Iron-Air (Fe-air): Uses iron and oxygen for very low-cost, long-duration grid storage.
Non-Lithium Batteries
[6/10]
CHALLENGES
Commercialization faces key hurdles: 1. Lower Energy Density: Currently heavier than lithium-ion for the same range, making them less suitable for long-range EVs. 2. Performance & Lifespan: Cycle life and performance in extreme temperatures are still being optimized. 3. Manufacturing Scale-up: A parallel manufacturing ecosystem to rival the incumbent lithium-ion industry requires massive investment.
Non-Lithium Batteries
[7/10]
TRENDS
Corporate and national strategies are driving rapid progress: • Sodium-ion Commercialization: Industry giants like CATL and Northvolt are launching their first Na-ion batteries for EVs and grid storage. • Automaker Diversification: Brands like BYD are deploying sodium-ion in entry-level EVs to reduce costs and supply chain risk. • Breakthroughs in Zinc: Companies like Zinc8 are deploying zinc-based batteries for long-duration grid applications.
Non-Lithium Batteries
[8/10]
OPPORTUNITY
The global battery market is projected to exceed $400B by 2030. Non-lithium batteries expand this market by providing "right-sized" solutions for grid storage and city mobility, freeing up lithium for high-performance applications and creating a more resilient, affordable, and sustainable energy storage ecosystem.
Non-Lithium Batteries
[9/10]
THE NEED
To accelerate adoption: • Investors must fund the first commercial-scale manufacturing plants to drive down costs. • Policymakers can create incentives for grid projects using non-lithium tech and support domestic supply chains. • Automakers & Utilities must design applications around the strengths of new chemistries, rather than forcing a direct replacement for lithium-ion.
Non-Lithium Batteries
[10/10]
ACT NOW
Join our community of founders and investors at Evolvia unlocking exponential impact in this and several other emergent spaces.
Non-Lithium Batteries
[2/10]
SUMMARY
The global dependence on lithium-ion batteries creates major supply chain and ethical risks. This playbook focuses on alternative chemistries like sodium-ion, which use abundant, sustainable materials to create a more resilient and affordable energy storage ecosystem.
Non-Lithium Batteries
[3/10]
CONTEXT
The global transition to electric mobility and grid storage is creating unprecedented demand for batteries, a demand almost entirely dependent on lithium-ion technology.
Non-Lithium Batteries
[4/10]
PROBLEM
Over-reliance on lithium-ion creates critical risks: 1. Geopolitical & Supply Chain: Lithium and cobalt mining is geographically concentrated, creating price volatility and fragility. 2. Environmental & Social Cost: Mining is water-intensive and linked to environmental damage and human rights issues (cobalt). 3. Safety & Material Constraints: Lithium batteries carry fire risks, and raw material shortages are a bottleneck to mass electrification.
Non-Lithium Batteries
[5/10]
SOLUTION
A new generation of batteries using abundant, safer materials is emerging: • Sodium-ion (Na-ion): Uses cheap, abundant sodium. Ideal for stationary storage and city EVs. • Zinc-ion (Zn-ion): Uses a non-flammable water-based electrolyte, enhancing safety. • Iron-Air (Fe-air): Uses iron and oxygen for very low-cost, long-duration grid storage.
Non-Lithium Batteries
[6/10]
CHALLENGES
Commercialization faces key hurdles: 1. Lower Energy Density: Currently heavier than lithium-ion for the same range, making them less suitable for long-range EVs. 2. Performance & Lifespan: Cycle life and performance in extreme temperatures are still being optimized. 3. Manufacturing Scale-up: A parallel manufacturing ecosystem to rival the incumbent lithium-ion industry requires massive investment.
Non-Lithium Batteries
[7/10]
TRENDS
Corporate and national strategies are driving rapid progress: • Sodium-ion Commercialization: Industry giants like CATL and Northvolt are launching their first Na-ion batteries for EVs and grid storage. • Automaker Diversification: Brands like BYD are deploying sodium-ion in entry-level EVs to reduce costs and supply chain risk. • Breakthroughs in Zinc: Companies like Zinc8 are deploying zinc-based batteries for long-duration grid applications.
Non-Lithium Batteries
[8/10]
OPPORTUNITY
The global battery market is projected to exceed $400B by 2030. Non-lithium batteries expand this market by providing "right-sized" solutions for grid storage and city mobility, freeing up lithium for high-performance applications and creating a more resilient, affordable, and sustainable energy storage ecosystem.
Non-Lithium Batteries
[9/10]
THE NEED
To accelerate adoption: • Investors must fund the first commercial-scale manufacturing plants to drive down costs. • Policymakers can create incentives for grid projects using non-lithium tech and support domestic supply chains. • Automakers & Utilities must design applications around the strengths of new chemistries, rather than forcing a direct replacement for lithium-ion.
Non-Lithium Batteries
[10/10]
ACT NOW
Join our community of founders and investors at Evolvia unlocking exponential impact in this and several other emergent spaces.
Non-Lithium Batteries
[2/10]
SUMMARY
The global dependence on lithium-ion batteries creates major supply chain and ethical risks. This playbook focuses on alternative chemistries like sodium-ion, which use abundant, sustainable materials to create a more resilient and affordable energy storage ecosystem.
Non-Lithium Batteries
[3/10]
CONTEXT
The global transition to electric mobility and grid storage is creating unprecedented demand for batteries, a demand almost entirely dependent on lithium-ion technology.
Non-Lithium Batteries
[4/10]
PROBLEM
Over-reliance on lithium-ion creates critical risks: 1. Geopolitical & Supply Chain: Lithium and cobalt mining is geographically concentrated, creating price volatility and fragility. 2. Environmental & Social Cost: Mining is water-intensive and linked to environmental damage and human rights issues (cobalt). 3. Safety & Material Constraints: Lithium batteries carry fire risks, and raw material shortages are a bottleneck to mass electrification.
Non-Lithium Batteries
[5/10]
SOLUTION
A new generation of batteries using abundant, safer materials is emerging: • Sodium-ion (Na-ion): Uses cheap, abundant sodium. Ideal for stationary storage and city EVs. • Zinc-ion (Zn-ion): Uses a non-flammable water-based electrolyte, enhancing safety. • Iron-Air (Fe-air): Uses iron and oxygen for very low-cost, long-duration grid storage.
Non-Lithium Batteries
[6/10]
CHALLENGES
Commercialization faces key hurdles: 1. Lower Energy Density: Currently heavier than lithium-ion for the same range, making them less suitable for long-range EVs. 2. Performance & Lifespan: Cycle life and performance in extreme temperatures are still being optimized. 3. Manufacturing Scale-up: A parallel manufacturing ecosystem to rival the incumbent lithium-ion industry requires massive investment.
Non-Lithium Batteries
[7/10]
TRENDS
Corporate and national strategies are driving rapid progress: • Sodium-ion Commercialization: Industry giants like CATL and Northvolt are launching their first Na-ion batteries for EVs and grid storage. • Automaker Diversification: Brands like BYD are deploying sodium-ion in entry-level EVs to reduce costs and supply chain risk. • Breakthroughs in Zinc: Companies like Zinc8 are deploying zinc-based batteries for long-duration grid applications.
Non-Lithium Batteries
[8/10]
OPPORTUNITY
The global battery market is projected to exceed $400B by 2030. Non-lithium batteries expand this market by providing "right-sized" solutions for grid storage and city mobility, freeing up lithium for high-performance applications and creating a more resilient, affordable, and sustainable energy storage ecosystem.
Non-Lithium Batteries
[9/10]
THE NEED
To accelerate adoption: • Investors must fund the first commercial-scale manufacturing plants to drive down costs. • Policymakers can create incentives for grid projects using non-lithium tech and support domestic supply chains. • Automakers & Utilities must design applications around the strengths of new chemistries, rather than forcing a direct replacement for lithium-ion.
Non-Lithium Batteries
[10/10]
ACT NOW
Join our community of founders and investors at Evolvia unlocking exponential impact in this and several other emergent spaces.
Non-Lithium Batteries
[2/10]
SUMMARY
The global dependence on lithium-ion batteries creates major supply chain and ethical risks. This playbook focuses on alternative chemistries like sodium-ion, which use abundant, sustainable materials to create a more resilient and affordable energy storage ecosystem.
Non-Lithium Batteries
[3/10]
CONTEXT
The global transition to electric mobility and grid storage is creating unprecedented demand for batteries, a demand almost entirely dependent on lithium-ion technology.
Non-Lithium Batteries
[4/10]
PROBLEM
Over-reliance on lithium-ion creates critical risks: 1. Geopolitical & Supply Chain: Lithium and cobalt mining is geographically concentrated, creating price volatility and fragility. 2. Environmental & Social Cost: Mining is water-intensive and linked to environmental damage and human rights issues (cobalt). 3. Safety & Material Constraints: Lithium batteries carry fire risks, and raw material shortages are a bottleneck to mass electrification.
Non-Lithium Batteries
[5/10]
SOLUTION
A new generation of batteries using abundant, safer materials is emerging: • Sodium-ion (Na-ion): Uses cheap, abundant sodium. Ideal for stationary storage and city EVs. • Zinc-ion (Zn-ion): Uses a non-flammable water-based electrolyte, enhancing safety. • Iron-Air (Fe-air): Uses iron and oxygen for very low-cost, long-duration grid storage.
Non-Lithium Batteries
[6/10]
CHALLENGES
Commercialization faces key hurdles: 1. Lower Energy Density: Currently heavier than lithium-ion for the same range, making them less suitable for long-range EVs. 2. Performance & Lifespan: Cycle life and performance in extreme temperatures are still being optimized. 3. Manufacturing Scale-up: A parallel manufacturing ecosystem to rival the incumbent lithium-ion industry requires massive investment.
Non-Lithium Batteries
[7/10]
TRENDS
Corporate and national strategies are driving rapid progress: • Sodium-ion Commercialization: Industry giants like CATL and Northvolt are launching their first Na-ion batteries for EVs and grid storage. • Automaker Diversification: Brands like BYD are deploying sodium-ion in entry-level EVs to reduce costs and supply chain risk. • Breakthroughs in Zinc: Companies like Zinc8 are deploying zinc-based batteries for long-duration grid applications.
Non-Lithium Batteries
[8/10]
OPPORTUNITY
The global battery market is projected to exceed $400B by 2030. Non-lithium batteries expand this market by providing "right-sized" solutions for grid storage and city mobility, freeing up lithium for high-performance applications and creating a more resilient, affordable, and sustainable energy storage ecosystem.
Non-Lithium Batteries
[9/10]
THE NEED
To accelerate adoption: • Investors must fund the first commercial-scale manufacturing plants to drive down costs. • Policymakers can create incentives for grid projects using non-lithium tech and support domestic supply chains. • Automakers & Utilities must design applications around the strengths of new chemistries, rather than forcing a direct replacement for lithium-ion.
Non-Lithium Batteries
[10/10]
ACT NOW
Join our community of founders and investors at Evolvia unlocking exponential impact in this and several other emergent spaces.
Non-Lithium Batteries
[2/10]
SUMMARY
The global dependence on lithium-ion batteries creates major supply chain and ethical risks. This playbook focuses on alternative chemistries like sodium-ion, which use abundant, sustainable materials to create a more resilient and affordable energy storage ecosystem.
Non-Lithium Batteries
[3/10]
CONTEXT
The global transition to electric mobility and grid storage is creating unprecedented demand for batteries, a demand almost entirely dependent on lithium-ion technology.
Non-Lithium Batteries
[4/10]
PROBLEM
Over-reliance on lithium-ion creates critical risks: 1. Geopolitical & Supply Chain: Lithium and cobalt mining is geographically concentrated, creating price volatility and fragility. 2. Environmental & Social Cost: Mining is water-intensive and linked to environmental damage and human rights issues (cobalt). 3. Safety & Material Constraints: Lithium batteries carry fire risks, and raw material shortages are a bottleneck to mass electrification.
Non-Lithium Batteries
[5/10]
SOLUTION
A new generation of batteries using abundant, safer materials is emerging: • Sodium-ion (Na-ion): Uses cheap, abundant sodium. Ideal for stationary storage and city EVs. • Zinc-ion (Zn-ion): Uses a non-flammable water-based electrolyte, enhancing safety. • Iron-Air (Fe-air): Uses iron and oxygen for very low-cost, long-duration grid storage.
Non-Lithium Batteries
[6/10]
CHALLENGES
Commercialization faces key hurdles: 1. Lower Energy Density: Currently heavier than lithium-ion for the same range, making them less suitable for long-range EVs. 2. Performance & Lifespan: Cycle life and performance in extreme temperatures are still being optimized. 3. Manufacturing Scale-up: A parallel manufacturing ecosystem to rival the incumbent lithium-ion industry requires massive investment.
Non-Lithium Batteries
[7/10]
TRENDS
Corporate and national strategies are driving rapid progress: • Sodium-ion Commercialization: Industry giants like CATL and Northvolt are launching their first Na-ion batteries for EVs and grid storage. • Automaker Diversification: Brands like BYD are deploying sodium-ion in entry-level EVs to reduce costs and supply chain risk. • Breakthroughs in Zinc: Companies like Zinc8 are deploying zinc-based batteries for long-duration grid applications.
Non-Lithium Batteries
[8/10]
OPPORTUNITY
The global battery market is projected to exceed $400B by 2030. Non-lithium batteries expand this market by providing "right-sized" solutions for grid storage and city mobility, freeing up lithium for high-performance applications and creating a more resilient, affordable, and sustainable energy storage ecosystem.
Non-Lithium Batteries
[9/10]
THE NEED
To accelerate adoption: • Investors must fund the first commercial-scale manufacturing plants to drive down costs. • Policymakers can create incentives for grid projects using non-lithium tech and support domestic supply chains. • Automakers & Utilities must design applications around the strengths of new chemistries, rather than forcing a direct replacement for lithium-ion.
Non-Lithium Batteries
[10/10]
ACT NOW
Join our community of founders and investors at Evolvia unlocking exponential impact in this and several other emergent spaces.
Non-Lithium Batteries
[2/10]
SUMMARY
The global dependence on lithium-ion batteries creates major supply chain and ethical risks. This playbook focuses on alternative chemistries like sodium-ion, which use abundant, sustainable materials to create a more resilient and affordable energy storage ecosystem.
Non-Lithium Batteries
[3/10]
CONTEXT
The global transition to electric mobility and grid storage is creating unprecedented demand for batteries, a demand almost entirely dependent on lithium-ion technology.
Non-Lithium Batteries
[4/10]
PROBLEM
Over-reliance on lithium-ion creates critical risks: 1. Geopolitical & Supply Chain: Lithium and cobalt mining is geographically concentrated, creating price volatility and fragility. 2. Environmental & Social Cost: Mining is water-intensive and linked to environmental damage and human rights issues (cobalt). 3. Safety & Material Constraints: Lithium batteries carry fire risks, and raw material shortages are a bottleneck to mass electrification.
Non-Lithium Batteries
[5/10]
SOLUTION
A new generation of batteries using abundant, safer materials is emerging: • Sodium-ion (Na-ion): Uses cheap, abundant sodium. Ideal for stationary storage and city EVs. • Zinc-ion (Zn-ion): Uses a non-flammable water-based electrolyte, enhancing safety. • Iron-Air (Fe-air): Uses iron and oxygen for very low-cost, long-duration grid storage.
Non-Lithium Batteries
[6/10]
CHALLENGES
Commercialization faces key hurdles: 1. Lower Energy Density: Currently heavier than lithium-ion for the same range, making them less suitable for long-range EVs. 2. Performance & Lifespan: Cycle life and performance in extreme temperatures are still being optimized. 3. Manufacturing Scale-up: A parallel manufacturing ecosystem to rival the incumbent lithium-ion industry requires massive investment.
Non-Lithium Batteries
[7/10]
TRENDS
Corporate and national strategies are driving rapid progress: • Sodium-ion Commercialization: Industry giants like CATL and Northvolt are launching their first Na-ion batteries for EVs and grid storage. • Automaker Diversification: Brands like BYD are deploying sodium-ion in entry-level EVs to reduce costs and supply chain risk. • Breakthroughs in Zinc: Companies like Zinc8 are deploying zinc-based batteries for long-duration grid applications.
Non-Lithium Batteries
[8/10]
OPPORTUNITY
The global battery market is projected to exceed $400B by 2030. Non-lithium batteries expand this market by providing "right-sized" solutions for grid storage and city mobility, freeing up lithium for high-performance applications and creating a more resilient, affordable, and sustainable energy storage ecosystem.
Non-Lithium Batteries
[9/10]
THE NEED
To accelerate adoption: • Investors must fund the first commercial-scale manufacturing plants to drive down costs. • Policymakers can create incentives for grid projects using non-lithium tech and support domestic supply chains. • Automakers & Utilities must design applications around the strengths of new chemistries, rather than forcing a direct replacement for lithium-ion.
Non-Lithium Batteries
[10/10]
ACT NOW
Join our community of founders and investors at Evolvia unlocking exponential impact in this and several other emergent spaces.
The global dependence on lithium-ion batteries creates major supply chain and ethical risks. This playbook focuses on alternative chemistries like sodium-ion, which use abundant, sustainable materials to create a more resilient and affordable energy storage ecosystem.
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254 Chapman Rd, Ste 208 #6290, Newark, Delaware 19702, USA
©2025. All rights reserved.
254 Chapman Rd, Ste 208 #6290, Newark, Delaware 19702, USA
©2025. All rights reserved.
254 Chapman Rd, Ste 208 #6290, Newark, Delaware 19702, USA