What is Next Thing Technologies? What products are you offering?
Next Thing Technologies is developing advanced sodium-ion battery technology for stationary energy storage applications. Our flagship product is an innovative home battery system that aims to be more affordable, safer, and sustainable than current lithium-ion options. We're developing solutions for residential, commercial, data center, and utility-scale energy storage.
What is NTT selling, and how does it work?
We're developing a sodium-ion battery system for home energy storage that we can scale to commercial and utility size applications. It works by storing electricity during off-peak hours or from renewable sources like solar panels, which can then be used during peak hours or power outages. Our system aims to be safer, more affordable, easier to install, more scalable, and more eco-friendly than current lithium-ion options.
Does the product exist? What is the plan for it?
Yes, we have working prototypes of our sodium-ion cells and have successfully combined them into a home-ready battery pack. Our plan is to refine the design, scale up production, and with this next round of funding, bring the product to market. We're currently working towards pilot production and seeking additional funding to accelerate our timeline.
What is Next Thing Technologies? What products are you offering?
While our sodium-ion technology could potentially be used for electric vehicles in the future, we are currently focused on stationary energy storage applications. We believe the stationary storage market, particularly for residential and commercial use, offers significant growth potential in the near term. Our modular, scalable design is well-suited for these applications.
It is very possible that the technology could be used for electric vehicles, in fact there are some applications of the materials we use in our batteries that could be used for electric vehicles. We have not ruled it out, however we believe that the industry most likely to grow faster, sooner is stationary storage.
We could at some point make a division that partners or licenses with someone in electric vehicles, but for now in this stage of our growth, we are focused on proving our technology to the world through stationary storage.
How does the module connect with the existing electrical system?
Our battery system is designed to integrate seamlessly with existing home electrical systems. It will likely require professional installation, similar to other home battery products, but that will depend on what our final design is and how it gets certified. We're working to make the installation process as straightforward as possible.
Is the product serviceable by the homeowner or does it need to be sent in for repair?
Our battery system is designed to integrate seamlessly with existing home electrical systems. It will likely require professional installation, similar to other home battery products, but that will depend on what our final design is and how it gets certified. We're working to make the installation process as straightforward as possible.
Beyond residential use, what other applications do you see for your battery technology?
While our initial focus is on residential energy storage, our sodium-ion technology has potential applications in several other areas:
Commercial and Industrial Energy Storage: For businesses looking to reduce energy costs and ensure reliable power.
Data Centers: To provide backup power and manage energy consumption more efficiently.
Grid-Scale Energy Storage: To support the integration of renewable energy sources into the power grid.
Electric Vehicle Charging Stations: To manage peak loads and provide fast charging capabilities.
Remote and Off-Grid Power Systems: For areas without reliable grid connections.
This combination of talent positions us to potentially revolutionize the energy storage industry.
How have the challenges with commercializing sodium-ion batteries been addressed?
Our team of expert advisors and engineers has made significant progress in addressing previous challenges with sodium-ion technology. We've developed innovative cell designs and electrolyte formulations that improve performance and stability. Our focus on stationary applications also allows us to optimize for this specific use case. Our science partners have solved many of the previously identified challenges with sodium technology, and are confident about completely addressing the remaining ones.
How are these charged in use for home heating and cooling, rather than the rural electric companies? What is the expected life expectancy of the home system?
While we're still finalizing these details, our goal is to create a product that is as low-maintenance as possible. Some basic monitoring may be possible for homeowners, but we anticipate that any significant servicing would need to be done by trained professionals to ensure safety and optimal performance.
Who are the key members of Next Thing Technologies' leadership team and advisory board?
Next Thing Technologies is led by CEO Jason Adams, who brings extensive experience in energy investing, dealmaking, and driving rapid revenue growth.Dr. Ahmad Pesaran serves as our Energy Storage Engineer Advisor.
Dr. Pesaran is a highly respected expert in battery technology with over 150 publications and decades of experience at the National Renewable Energy Laboratory.
We also have a world-class team of advisors from industry giants like Microsoft, Tesla, Panasonic, and Airbus, bringing expertise in areas such as data center batteries, electric vehicles, and aviation power systems.
What makes Next Thing Technologies' team uniquely qualified to succeed?
Our team brings together world-class expertise from various fields:
Our CEO, Jason Adams, has a track record of building and scaling successful tech products.
We have advisors from industry giants like Tesla, Panasonic, Microsoft, and Airbus.
Our R&D team includes experts in battery science, pushing the boundaries of what's possible in energy storage.
This combination of talent positions us to potentially revolutionize the energy storage industry.
How does Next Thing Technologies' battery technology contribute to environmental sustainability?
Our sodium-ion batteries offer significant environmental benefits compared to traditional lithium-ion batteries. They use abundant, non-toxic materials that are easily recyclable. Unlike lithium mining, which can have severe environmental impacts, sodium is readily available and can be sourced with minimal environmental disruption.
Our batteries are also designed to last for 20+ years, reducing waste and the need for frequent replacements.
Why is NTT focusing on a specific product rather than licensing the battery tech to a larger market?
We believe developing and marketing our own products offers greater potential value for our shareholders than a licensing model. By bringing our technology directly to market, we can capture more of the value chain and have greater control over the application and development of our technology.
That said, licensing our technology is definitely an avenue we plan to pursue as we progress. As our sodium-ion technology matures and we advance further along our technical roadmap, we anticipate exploring licensing opportunities, particularly in sectors like electric vehicles or with other battery manufacturers.
Our early data points suggest that our technology has the potential to be competitive with leading products like the Tesla Powerwall in terms of performance. We've developed an ideal battery blueprint with over 100 specific criteria that we aim to meet for the perfect sodium-ion battery.
Once we've fully proven our technology in the market and start receiving inbound requests, licensing could become a significant part of our business strategy, allowing us to expand our impact across various applications while focusing our direct efforts on our core markets.
How are these charged in use for home heating and cooling, rather than the rural electric companies? What is the expected life expectancy of the home system?
Our battery system is designed to integrate with your home's existing electrical system. It can be charged from the grid during off-peak hours or from renewable sources like solar panels.
For heating and cooling, the battery would supply power to your HVAC system during peak hours or power outages, potentially saving on energy costs.
The projected life expectancy of our home system is 20+ years with minimal degradation. This longevity is one of the key advantages of our sodium-ion technology.
Are there any updates on the company's progress, developments, partners, or roadmap?
We've made significant progress over the last year, including developing a commercial-caliber sodium-ion cell (65 amp hours) and creating the first home-ready sodium-ion battery pack in America. We also have agreements with American Battery Manufacturers to produce our batteries in the USA, and are actively pursuing partnerships with major real estate developers in California and beyond. We're now actively working towards pilot production and seeking additional funding to accelerate our development.
Can you provide more details about your manufacturing plans and partnerships?
We have agreements with American Battery Manufacturers to produce our batteries in the USA. We're also pursuing partnerships with major real estate developers in California and beyond to integrate our batteries into new home constructions. Additionally, we are exploring the possibility of scaling our technology straight to commercial-scale batteries to go to market with an industry leading commercial unit that can meet the growing demand for AI data center energy. As we move towards production, we'll be establishing additional manufacturing partnerships to scale our operations efficiently.
How far out are we from actual production? Sales?
We anticipate having a production model that is commercially available no sooner than three years from now (2024). However, the exact timeline will depend on several factors, including market conditions, our progress in R&D, and the success of our ongoing fundraising efforts.
We've made significant progress, including developing a commercial-caliber sodium-ion cell and creating the first home-ready sodium-ion battery pack in America.
We have agreements with American Battery Manufacturers to produce our batteries in the USA, and are pursuing partnerships with major real estate developers in California and beyond.
We're actively working towards pilot production and seeking additional funding to accelerate our timeline.
This fundraise is specifically dedicated to raising the $20 million we need to finish our R&D and launch our pilot production line.
What’s the production to market time frame?
While we cannot provide an exact date at this moment, our primary focus is on bringing a disruptive and scalable product to market. We've successfully scaled up our battery cell size from the standard 18650 form factor to a commercial-caliber 65 amp hour cell, which is a significant step towards production. We've also combined 15 of these commercial-caliber cells into a single unit powerful enough to run an entire home.
These breakthroughs may not only elevate NTT's position in the industry but also potentially impact the value of your shares.
Why can't we give a precise timeline at this time?
Regulatory Considerations: Due to the nature of Regulation A+ crowdfunding, any information we provide to one investor must be shared with all. With a large number of investors, there’s a possibility that news might be leaked to potential competitors before we can make an official announcement. However, I can confirm that we are actively planning our press and marketing strategies.
R&D Complexities: Developing a technology that has never been made before (sodium ion battery cells) is inherently challenging and doesn’t lend itself to linear planning. The timeline can be influenced by various factors, including manufacturing, supply chain and amount of capital raised. For example, we have some exciting opportunities that could lead to an even greater market opportunities. If that is deemed the best decision for all shareholders, it may change the timeline, but could also significantly enhance the value of the company and your potential investment.
Pace of funding: The amount of capital we raise through this crowdfunding investment round, future fundraising rounds, or future grants will also impact our timeline. Our current goal is to raise $20 million to finalize R&D and begin initial production runs. If we secure additional funding, it could enable us to pursue these disruptive opportunities, potentially altering our timeline and with enough raised, accelerate it.
We are venturing into uncharted territory and have made significant breakthroughs that showcase real value.
We want to be shipping units just as much as you but we also want to make sure that what we release has the potential for significant revenue and growth for the company and our shareholders.
Rest assured, we're committed to bringing our innovative technology to market as quickly as possible while ensuring we deliver a high-quality, competitive product.
What is Next Thing Technologies' long-term vision?
We aim to put a better battery in every home, business, and grid, making clean energy more accessible and affordable for everyone. Our long-term vision is to revolutionize the energy storage industry and accelerate the transition to sustainable energy. We're not just developing a product – we're attempting to build an entire ecosystem that can adapt to the evolving needs of the energy market. In the future, we see potential for licensing our technology to other manufacturers, particularly in sectors like electric vehicles, further expanding our impact on the global energy landscape.
What are the battery specs, and how is the safety concern of Sodium being handled?
We envisioned cell specs to include > 550 Wh/L, >5000 cycles with an 80% capacity retained, and up to 20 years of calendar life. Safety is improved with Sodium as it is less chemically active than Lithium.
Our current cells have a capacity of 170 amp hours, which is a significant increase from earlier prototypes. Safety is a key focus - our batteries use non-flammable electrolytes and have demonstrated zero incidents of thermal runaway in testing. The sodium salts used in our batteries are much less reactive than pure sodium metal, and no toxic gasses are released upon puncture, like some sodium designs that use cyanide anions and result in a possible release of highly toxic cyanide gasses, which do pose a significant safety risk (source).
What will be the full charging time and range of the battery?
Our current prototype combines 15 commercial-caliber cells into a single unit powerful enough to run an entire home. Specific charging times and energy capacity will depend on the final configuration, but our goal is to provide sufficient storage for typical residential needs. We're still refining these specifications as we move towards production.
What are the specs of the battery technology, such as whr/kg?
While we're still finalizing some specifications, our current cells have demonstrated energy density of over 550 Wh/L. We're focusing more on Wh/L (volume) rather than Wh/kg (weight) as this is more relevant for stationary applications. Our cells have shown up >99.98% columbic efficiency over 1000 cycles at the laboratory scale, and over 2400 cycles with 80% capacity retention in lab testing (which is greater than >1 cycle a day, over greater than >6.5 years).
How long can one unit battery system stay active, and what are the costs?
We're aiming for our batteries to have a lifespan of 20+ years with minimal degradation. Based on our current data, we expect a lifespan of 8-14 years. Some of our next tests will be to test our cell at high voltage and high temperatures to accelerate calendar effects, and as we continue our R&D, we will strive for a lifespan of 20+ years. As for costs, we're targeting a monthly subscription model of around $100 per month, which we believe will make our technology much more accessible than current options that require large upfront investments.
When and what will you be able to offer to store this much energy? Cycle life? Voltage Compatibility with present day inverters? And the final arbiter: cost?
We're currently in the development stage, moving towards pilot production. Our current prototype combines 15 commercial-caliber cells into a single unit powerful enough to run an entire home.
Specific details:
Energy Storage: Our current cells have a capacity of 170 amp hours.
Cycle Life: Over 2400 cycles with 80% capacity retention in lab testing.
Voltage Compatibility: We're designing our system to be compatible with standard home electrical systems and inverters.
Cost: We should be able to produce our units for 30-60% cheaper than lithium-based units at scale. Therefore, we're targeting a $100/month subscription model, which we estimate could be up to 90.6% more affordable to the end consumer than traditional lithium solutions in the first year.
Are there any monthly charges associated with the product?
We plan to offer our residential battery system through an innovative financing model, with the potential for monthly payments as low as $100. This model aims to make our technology accessible to a wider range of consumers compared to the high upfront costs of current lithium-ion systems.
How does the purchase process work for NTT? Is it $100/month plus the usual electric bill or a flat $100/month for both?
The $100/month would be for the battery system itself. Customers would still have their regular electric bill, but the battery system could potentially help reduce those costs by allowing customers to store energy when it's cheapest and use it during peak price periods.
How much will the subscription cost if multiple batteries are needed?
Pricing will depend on unit size, and a user will generally not need more than two units to power a home. The goal is to offer a price point disruptive in nature, possibly saving on electricity bills.
Our goal is to offer our residential battery system at around $100 per month. The exact pricing for multiple units is still being determined, but our aim is to keep costs significantly lower than current lithium-ion alternatives while providing sufficient capacity for most homes.
The price for one battery is $100 a month subscription. If you need 3 or 4 batteries, is that going to cost $300 or $400 dollars for the subscription?
Our goal is to offer our battery system at around $100 per month. Most homes will likely need only one or two units to meet their energy storage needs. Right now, a user will not need more than two units to power a home, with smaller units obviously those economics could change. The exact pricing for multiple units is still being determined, and will depend on the size of the unit, but our aim is to keep costs significantly lower than current lithium-ion alternatives while providing sufficient capacity for most homes.
We're focused on making our price point disruptive compared to options like the Tesla Powerwall, which can cost around $15,300 before tax credits, and more with solar panels or when installed by third party installers.
By using our battery to store off-peak energy, customers can potentially save significantly on their electricity bills. For example, in San Diego, where peak energy costs can be 6 times higher than off-peak, using our battery could lead to substantial savings, effectively lowering the true cost of the subscription.
What is the cost of the wall unit, production estimates, and future capital raising plans?
We're targeting a subscription cost of $100 per month for our residential battery system. As of now, it’s projected that our sodium technology can be manufactured for 30-60% cheaper than traditional lithium batteries. Actual production estimates and capital raising plans are still being finalized. What we can say is that we're currently seeking to raise $20 million to finalize R&D and begin initial production runs. Future updates will be provided to our investors as these plans are solidified.
What are the drawbacks of this battery compared to Lithium Ion batteries?
We're anticipating filing 7 provisional patents to protect our groundbreaking technology. This will help ensure our competitive edge as we scale up. However, the specifics of these patents are confidential at this time.
Currently, we're protecting our innovations as trade secrets. This is a common industry practice, especially for early-stage startups like ours. There are several reasons for this approach:
Protection from patent trolls: Patent trolls are entities that acquire patents not to use the technology, but to profit from legal action against alleged infringers. By keeping our innovations as trade secrets initially, we reduce the risk of attracting unwanted attention from these entities.
Avoiding premature disclosure: Filing a patent requires publicly disclosing the innovation. By maintaining trade secrets, we can continue developing and refining our technology without tipping off competitors.
Flexibility: Trade secret protection allows us to adapt our strategy as our technology evolves, potentially leading to stronger patent applications in the future.
Cost-effective: Maintaining trade secrets is often less expensive than the patent application process, allowing us to allocate more resources to R&D at this critical stage.
Immediate protection: Trade secrets are protected as soon as we implement reasonable measures to keep them secret, unlike patents which can take years to be granted.
This approach helps us mitigate unnecessary risks that could be detrimental to an early-stage startup like ours. IP theft or erroneous legal battles can be extremely costly and disruptive, potentially derailing our progress. As we continue to develop our technology and approach commercialization, we'll strategically transition from trade secrets to patent protection, ensuring we maintain our competitive advantage while also securing long-term intellectual property rights.
Can the list of patents and more technical data be provided?
At this stage, we're strategically protecting our innovations as trade secrets while we continue to refine and develop our technology. This approach is common in the tech industry, especially for startups like ours, as it provides immediate protection without premature disclosure of our innovations.
We're anticipating filing at least 7 provisional patents in the near future to protect our groundbreaking technology. However, until these are filed, we can't disclose specific technical details or a list of potential patents. This caution is necessary to maintain our competitive edge and protect against potential IP theft or legal challenges that could be detrimental to our progress.
Our goal is to maximize the value of our technology for our investors and future customers, which sometimes requires a measured approach to information sharing. As we transition from trade secret protection to patent filings, and as our technology matures, we will share more detailed technical information.
Who owns the IP for Next Thing Technologies''s technology?
Next Thing Technologies owns or has exclusive rights to use the core technology we're developing. We'll soon file multiple patents to protect our innovations, but as previously disclosed, these technologies are currently protected as trade secrets for the time being.
What are the details regarding the intellectual property (IP) rights?
Next Thing Technologies owns or has exclusive rights to the core technology we're developing. We will file multiple patents to protect our innovations when it is strategic to do so. Specific details about our IP strategy are confidential to protect our competitive position, but rest assured that our intellectual property is currently protected as trade secrets.
What are the drawbacks of this battery compared to Lithium Ion batteries?
The battery will be non-flammable, non-toxic, and recyclable, but it may be slightly heavier. This means Lithium might be better for Electric Vehicles at present.
And while our sodium-ion batteries offer significant advantages in terms of cost, safety, and sustainability, they may have slightly lower energy density compared to the most advanced lithium-ion batteries. For stationary applications, this is less critical than for electric vehicles. The benefits in terms of cost, safety, and abundant materials outweigh this potential drawback for our target markets.
How does your technology replace the power storage difficulties of lithium-ion batteries?
Our sodium-ion technology addresses several key challenges of lithium-ion batteries. It's potentially safer due to non-flammable components, more affordable due to abundant raw materials, and more sustainable. It's designed to provide reliable energy storage for homes and businesses without the supply chain and environmental concerns associated with lithium.
How does this battery compare to Vanadium flow batteries?
NTT's battery is designed to be smaller and used after the meter, allowing for significantly faster market penetration compared to container-sized vanadium flow batteries used before the meter.
In short, our technology offers greater flexibility and easier installation for “after the meter” applications.
How does this battery compare (cost, number of cycles, or the number of years the battery would last) to Vanadium flow batteries?
Vanadium flow batteries are often the size of containers and are used before the meter. Before the meter technology takes a lot longer because of the red tape associated with working with big utility infrastructure.
Our sodium-ion batteries are designed for residential and commercial “behind-the-meter” applications, which helps the end consumer and can be as small as is needed (unlike the large container-sized vanadium flow batteries typically used for utility-scale "front-of-meter" storage).
This focus allows us to bring our technology to market faster, avoiding much of the regulatory complexity associated with utility infrastructure.
In terms of specifics:
Cost: Our goal is to be significantly more affordable, with a $100/month subscription model.
Cycles: Our cells have demonstrated over 5000 cycles with 80% capacity retention in lab testing.
Lifespan: We're aiming for a 20+ year lifespan with minimal degradation.
Modular: Our technology is more compact and flexible, suitable for residential use, and avoids the supply chain issues associated with lithium batteries.
We also believe the future is basically forcing a move towards technology like this for many reasons, the least of which being China's control over Lithium and Lithium demand for EVs not being able to be met by the Lithium supply chain on its own.
How does NTT's technology compete with international companies like Reliance Technologies and CATL?
While companies like CATL are also working on sodium-ion technology, we believe our focus on the U.S. market, our innovative cell design, and our business model focused on residential and commercial applications give us unique advantages. We're also further along in developing a safe, affordable, home-ready sodium-ion battery pack than most competitors.
Our focus on “behind-the-meter” solutions offers a faster path to market compared to “front-of-meter” technologies. Behind-the-meter refers to energy systems installed on the customer's side of the utility meter, like residential and commercial battery storage. These systems typically face fewer regulatory hurdles and can be deployed more quickly than large-scale, utility-side (front-of-meter) solutions.
This approach allows us to:
Bypass much of the red tape associated with utility-scale infrastructure projects.
Directly address the growing demand for residential and commercial energy storage.
Iterate and improve our technology more rapidly based on real-world usage.
Establish a market presence sooner, which is crucial in this fast-evolving industry.
By focusing on these more agile, customer-centric applications, we can potentially bring our technology to market faster than competitors focused solely on large-scale, utility-side solutions.
How does the subscription cost work, and how does it compare to other products like Tesla's Powerwalls?
Our subscription model is designed to make energy storage significantly more accessible than current options like Tesla Powerwalls, which require large upfront investments. We're targeting a price point of $100 per month for our residential battery system.
This innovative approach offers several advantages:
Affordability: Our model could reduce costs to consumers by up to 90.6% in the first year compared to traditional lithium-based solutions.
Immediate Savings: Instead of a long payback period that takes years to recoup the initial investment, consumers can potentially start saving right away. Our system could pay for itself through energy bill savings, especially in areas with significant differences between peak and off-peak electricity prices.
Accessibility: By eliminating the need for a large upfront payment, we're making advanced energy storage technology available to a much wider range of consumers. This aligns with our mission to put a battery in every home.
Flexibility: Our modular design means customers can start with what they need and potentially add capacity over time without large additional investments.
Cost-Effective Technology: Our sodium-ion technology allows for production costs 30-60% lower than lithium-ion batteries, savings we can pass on to consumers.
By offering our technology at $100 per month, we're aiming to make home energy storage as common and accessible as other household appliances, revolutionizing the way people think about and use energy in their homes.
What are the details of your current fundraising round?
We are currently raising funds through a Regulation A+ offering. The minimum investment is $498, with shares priced at $6.00 each. This price reflects our significant technological advancements, including scaling our battery cell size to a commercial-grade 65 amp hour capacity.
This capital will be used to finalize our R&D efforts and begin initial production runs.
What is the potential market size for Next Thing Technologies' products?
The global renewable energy market is projected to reach $2.1 trillion by 2030. We're targeting multiple sectors within this market:
Residential Energy Storage: A $34 to $51 billion market.
Data Centers: Part of a $56.58 billion market.
Utility-Scale Energy Storage: A $435 billion market by 2030
Electric Vehicle Charging: Heading towards a $257 billion market.
Off-grid and Remote Power: A $206 billion opportunity.
We aim to capture a significant portion of these markets with our innovative sodium-ion battery cell technology.
Why should I invest in Next Thing Technologies now?
We believe there are several compelling reasons to invest now:
Massive Growth Potential: The global renewable energy market is projected to reach $2.1 trillion by 2030, and global stationary storage specifically is expected to make up almost half a trillion dollars ($435 billion).
Government Backing: Our technology aligns well with the $369 billion in clean energy incentives from the Inflation Reduction Act.
First Mover Advantage: We're one of the few private U.S. company developing a sodium-ion battery that anyone can invest in right now via equity crowdfunding.
Proven Progress: Unlike most battery startups who never make it past the pouch cell stage, we have a working home-battery prototype.
Economic Resilience: Energy investments, especially in innovative storage technologies, have generally been inflation-resilient and recession-tough.
How urgent is this investment opportunity?
This opportunity is limited. We're only accepting investments for a limited time, or until we reach our goal – whichever comes first. Once this round closes, you may not have another chance to invest at this valuation. The next time we open for investment, our valuation could be significantly higher.
How can energy investments serve as an economic shield?
Energy investments offer unique advantages that make them ideal for diversification, especially in uncertain times:
Inflation-Resilient: When inflation hits, energy companies can pass increased costs to consumers, maintaining profitability even as inflation soars.
Recession-Tough: Even in economic downturns, people still need electricity, fuel, and energy. This stable demand makes energy companies and utilities attractive "defensive" investments during tough times.
Tangible Value: Unlike volatile tech stocks or speculative AI companies, energy investments like our sodium-ion batteries represent real, physical assets. These tend to retain value during inflationary periods, providing a hedge against economic uncertainty.
What are your plans for future fundraising?
While this current round aims to raise funds to finalize our R&D and begin initial production runs, we're also actively pursuing other funding avenues. This includes applying for federal grants and exploring potential partnerships with venture capital firms. If we secure our target funding in this round, it could position us favorably for these additional funding opportunities, potentially accelerating our timeline to market.
How does investing in Next Thing Technologies differ from public market investments?
Investing in our company offers several unique advantages:
Uncorrelated Returns: Early-stage private companies often have returns that are not closely correlated with public markets.
Access to Emerging Technologies: You gain exposure to cutting-edge innovations before they become mainstream.
Sector Diversification: Our technology allows you to diversify into an emerging sector that may be underrepresented in public markets.
What are Wefunder Perks?
While we're no longer actively using Wefunder for investments, past investors can still check their investment information by logging into their Wefunder account. For our current offering, we have a different set of perks based on investment levels, which includes bonus shares based on particular investment levels. Specific details about current investment perks like bonus shares are available in our latest offering materials.
Why is sodium a better choice than lithium for battery technology?
Sodium is 1,400 times more abundant than lithium, making it a more sustainable and cost-effective choice. It's also safer, as sodium-ion batteries don't pose the same fire risks as lithium-ion. Moreover, sodium can be sourced domestically in the U.S., reducing dependence on foreign supply chains.
How urgent is the need for new battery technology?
The need is immediate and growing. With the explosion of AI, electric vehicles, and renewable energy, demand for energy storage is skyrocketing. At the same time, we're facing potential lithium shortages as soon as 2025. Our sodium-ion technology offers a timely solution to these pressing challenges.
How does Next Thing Technologies' battery impact home energy costs?
Our innovative subscription model aims to make energy storage much more accessible. At $100/month, our system could potentially pay for itself through energy bill savings, especially in areas with large differences between peak and off-peak electricity prices. This could lead to significant cost savings for homeowners.
How does investing in Next Thing Technologies protect against economic uncertainty?
Energy is a recession-resistant and inflation-proof sector. Even during economic downturns, demand for electricity remains stable. Our technology represents a tangible asset that can retain value during inflationary periods, providing a hedge against economic uncertainty.
Why is now the best time to invest in Next Thing Technologies?
We're at a critical juncture. With our working prototype and plans for pilot production, we're poised for rapid growth. The $369 billion in government incentives for clean tech creates a favorable environment for our technology. By investing now, you have the opportunity to get in at a lower valuation before we potentially secure additional funding or government grants.
What is the ticker symbol for NTT?
Since we are a private company, we do not have a ticker symbol. We are currently raising funds via Regulation A+, which allows everyday investors to invest in private companies before they potentially go public or get acquired. This type of offering gives retail investors the opportunity to participate in early-stage investments that were traditionally only available to accredited investors or venture capital firms.
Somewhere in the future can I sell my shares back to you at market value at the time of my choosing?
Thank you for your question about the potential for selling shares back to the company. While we cannot guarantee the ability to repurchase shares at a future date, we are committed to providing liquidity options for our investors.
Liquidity Options: We have plans to join an Alternative Trading System (ATS) to create a secondary market for shares. This will allow shareholders to potentially sell their shares to other investors on the platform. We have already registered and set up with Securitize to facilitate this process. Securitize is a well-respected platform in this space, known for its partnership with BlackRock and its large investor base.
Potential Ways to Realize Value from Private Equity Investments: Private equity investments can potentially result in returns through various means. Here are some common scenarios:
Secondary Market Sales: As mentioned, we plan to list on an ATS, which could provide opportunities for shareholders to sell their shares to other investors.
Merger or Acquisition: If the company is acquired by or merges with another entity, this could potentially result in a payout to shareholders.
Major Investment: A significant investment from a larger firm or venture capital group might provide an opportunity for existing shareholders to sell some or all of their shares.
Initial Public Offering (IPO): If the company goes public, shareholders may have the opportunity to sell their shares on the public stock market.
Dividend Distributions: Some companies may choose to distribute profits to shareholders in the form of dividends, although this is less common in early-stage companies.
Company Buybacks: In some cases, the company itself may offer to buy back shares from investors, although this is not currently planned.
It's important to note that returns on private equity investments are not guaranteed, and the timing and method of realizing returns can vary greatly. Each of these scenarios depends on the company's performance, market conditions, and other factors.
We encourage you to carefully review our offering documents (link to it) and consider your own financial situation and risk tolerance before investing.
Why are lithium-ion batteries being called a "silent time bomb"?
Lithium-ion batteries, while common in many devices, pose significant safety risks. They can overheat, catch fire, or even explode due to a process called "thermal runaway." This has led to numerous incidents, including fires in homes and vehicles. Our sodium-ion technology is designed to be inherently safer, with non-flammable components and no risk of thermal runaway.
Why are our sodium-ion batteries safer than traditional (and dangerous) lithium-ion based batteries?
Lithium-ion batteries are prone to thermal runaway, which can lead to fires and explosions. This is due to their flammable electrolytes and the potential for internal short circuits.
Sodium Solution: Our sodium-ion batteries use non-flammable electrolytes and are engineered to resist thermal runaway. In over seven generations of 18650 cells, we've experienced zero incidents of thermal runaway. Our cells have passed extreme safety tests, including puncture and fire resistance, with non-toxic gas emissions. This makes our batteries significantly safer for home and office use, projected to be 33% safer than lithium-based options.
How are our sodium-ion batteries able to be produced more affordably than lithium-ion batteries?
Our sodium-ion batteries offer significant cost advantages over traditional lithium-ion batteries for several reasons:
Raw Material Costs: Sodium is approximately 1,400 times more abundant than lithium, making it much cheaper to source. While lithium carbonate prices have been highly volatile, reaching as high as $84,000 per ton in 2022, sodium carbonate is consistently priced at around $300 per ton.
Simpler Manufacturing Process: The production of sodium-ion batteries doesn't require the same level of costly purification and processing as lithium-ion batteries. This simplifies the manufacturing process, reducing overall production costs.
Domestic Sourcing: We can source sodium domestically in the U.S., eliminating expensive international shipping and reducing supply chain complexities that often inflate costs for lithium-ion batteries.
Less Expensive Components: Sodium-ion batteries can use aluminum instead of copper for the current collector, which is significantly cheaper. Additionally, they don't require cobalt, a costly and ethically problematic component of many lithium-ion batteries.
Existing Infrastructure Utilization: Our sodium-ion batteries can be produced using much of the existing lithium-ion battery manufacturing infrastructure, reducing the need for costly new equipment investments.
Reduced Safety Measures: The inherent safety of sodium-ion batteries means we can potentially reduce costs associated with complex safety systems required for lithium-ion battery production and storage, such as additional fire insurance costs.
Economies of Scale: As we scale up production, we expect to achieve even greater cost efficiencies, further driving down the cost per unit.
These factors combine to allow us to produce our batteries at 30-60% lower cost than lithium-ion alternatives.
For context, while a Tesla Powerwall costs around $15,080 in California, we're targeting a subscription model of just $100 per month for our residential system. This could translate to up to 90.6% cost reduction for consumers in the first year compared to traditional lithium-based solutions.
It's important to note that our cost advantage isn't just in the production phase. The longer lifespan, better performance in extreme conditions, and easier recyclability of our batteries also contribute to lower total cost of ownership over time.
By leveraging these cost advantages, we're aiming to make advanced energy storage technology accessible to a much wider range of consumers and businesses, potentially revolutionizing the energy storage market.
How does the availability of sodium compare to lithium, and why is this important for battery production?
Lithium is relatively scarce, with global reserves estimated at only 14-15 million tons. This scarcity is leading to supply chain issues and price volatility.
Sodium is 1,400 times more abundant than lithium. For example, there are over 200 billion tons of sodium carbonate in Wyoming alone. This abundance ensures a stable, cost-effective supply chain for our batteries.
What are the environmental advantages of sodium-ion batteries over lithium-ion batteries?
Lithium mining has significant environmental impacts, including water table contamination, deforestation, and CO2 emissions. It consumes about 1.7 billion gallons of water per year.
Our sodium-based batteries use widely available and domestically sourced sodium, with minimal environmental impact. The production process uses significantly less water and doesn't require net new extensive mining operations, reducing the overall environmental footprint.
How does the energy density of our sodium-ion batteries compare to lithium-ion batteries, and why is this suitable for our applications?
While lithium-ion batteries have high energy density, making them suitable for mobile applications, this comes at the cost of safety and affordability for stationary applications.
Our sodium-ion cells have demonstrated energy density of over 550 Wh/L. While slightly lower than the most advanced lithium-ion batteries, this is more than sufficient for stationary applications like home and grid energy storage, where the benefits in cost and safety outweigh the slight decrease in energy density.
How do our sodium-ion batteries compare to lithium-ion batteries in terms of lifespan and longevity?
Lithium-ion stationary storage batteries typically have a lifespan of 5-15 years, with degradation occurring over time.
Our sodium-ion batteries are designed for a 8-14 year lifespan. The discharge rates of sodium-ion are better suited for home stationary storage than electric vehicles. In lab testing, our cells have shown over 2400 cycles with 80% capacity retention, which translates to more than one cycle per day for over 6.5 years.
How do sodium-ion batteries perform in extreme conditions compared to lithium-ion batteries?
Lithium-ion batteries can struggle in extreme temperatures, particularly in cold conditions where their performance can significantly degrade.
Sodium-ion batteries generally perform better in a wider range of temperatures. Our technology is being designed to maintain stable performance across a broad temperature range, making it more reliable in various environmental conditions.
What advantages do sodium-ion batteries offer in terms of recycling and end-of-life management?
Recycling batteries is complex due to the mix of materials used. Lithium as an element is currently expensive to refine and more intensive to manage at the end of life to recycle.
Our sodium-ion batteries utilize an abundant and inexpensive ion to store energy. The materials utilized can be recycled utilizing similar or simpler processes to lithium-ion battery recycling, contributing to a more circular economy. We're developing recycling processes to enable efficient reuse of materials at the end of the battery's life.
How does the supply chain for sodium-ion batteries compare to that of lithium-ion batteries, and why is this significant?
The lithium supply chain is heavily dependent on a few countries, particularly China, which controls about 80% of the world's lithium processing.
Our use of abundant, domestically sourced sodium allows for a more secure and localized supply chain. This reduces geopolitical risks and aligns with government initiatives to secure critical materials for energy storage.
How does the energy demand from AI impact the battery market?
The rapid growth of AI is creating unprecedented energy demands. AI models require massive amounts of computational power, which in turn requires enormous amounts of electricity. This is straining our current power infrastructure and creating an urgent need for more efficient, scalable energy storage solutions like our sodium-ion batteries.
Why is the current AI boom unsustainable from an energy perspective?
The energy consumption of AI is growing at an alarming rate. A single ChatGPT query uses 10 times more power than a Google search, and AI's computational needs are doubling every 100 days. Our current power grid, which is largely outdated, cannot keep up with this demand. This creates a massive opportunity for innovative energy storage solutions like ours.
How does Next Thing Technologies' battery solve the "AI energy crisis"?
Our sodium-ion batteries address several key issues with rise in energy demand from AI-related data centers:
Cost: Up to 60% cheaper than current lithium-ion solutions, potentially slashing AI's operational costs.
Scalability: We can produce these at scale, without relying on rare earth materials like lithium, which are scarce and whose supply is largely controlled by foreign countries.
Durability: Our batteries last 33% longer than typical lithium-ion batteries.
Safety: Projected to be at least 33% safer than today's flammable lithium-based solutions.
How does the growing demand for AI impact the data center market, and how is Next Thing Technologies positioned to capitalize on this opportunity?
The explosive growth of AI is creating an unprecedented demand for data center capacity and energy-efficient solutions.
Here's why this presents a massive opportunity for Next Thing Technologies:
Surging Demand: The global data center power market is expected to reach $56.58 billion by 2032. Microsoft alone is planning over $100 billion in data center leases to support AI workloads (source). This indicates the scale of investment happening across the tech industry.
Energy Crisis: AI models consume enormous amounts of power. For instance, a single ChatGPT query uses 10 times more power than a Google search. Our current power infrastructure is struggling to keep up with even this demand, and more is being installed every day.
Cost Pressures: The energy requirements for AI are putting significant pressure on companies' margins. Microsoft's capital expenditures reached $19 billion in a single quarter, highlighting the urgent need for more cost-effective energy solutions.
Infrastructure Bottlenecks: There's a race to build data centers full of GPUs to run AI models, but power consumption is creating bottlenecks in standing up new facilities. Elon Musk has said in an interview with Lex Fridman that the next bottleneck after chips will be power (source).
Next Thing Technologies' sodium-ion batteries are perfectly positioned to address these challenges:
Cost-Effective: Our technology has the potential to reduce battery production costs by up to 60% compared to traditional lithium-ion solutions, which we could benefit our commercial data center customers.
Scalable: We can produce these batteries at scale without relying on rare earth materials like lithium, which inflate battery costs and slow down supply.
Efficient: Our batteries last 33% longer than typical lithium-ion batteries.
Safe: Our technology is projected to deliver at least 33% more safety than current lithium-based solutions.
If we can capture 5-10% of the $56 billion dollar data center market, it represents a $2.83 billion to $5.66 billion opportunity, although actual results may vary based on market conditions and competition.
Our technology also has applications across residential, commercial, and utility-scale energy storage, positioning us to capitalize on the broader $435 billion energy storage market projected by 2030.
By investing in Next Thing Technologies, you're positioning yourself at the forefront of this data center and AI revolution. Our innovative energy storage solutions could play a crucial role in enabling the next generation of AI infrastructure, potentially delivering significant returns as this market continues to expand rapidly.
Why is Next Thing Technologies focused on data center demand in this new funding round?
Next Thing Technologies is targeting the data center market for several compelling reasons:
Explosive Growth: The AI boom is driving significant demand for data center capacity. For example, Microsoft alone has announced plans to invest over $100 billion in data center leases to support AI workloads.
Urgent Need: AI models are known to consume massive amounts of energy. Estimates suggest a single ChatGPT query can use 10 times more power than a Google search. This creates an urgent need for efficient, scalable energy storage solutions.
Market Size: The global data center power market is projected to reach $56.58 billion by 2032. Our goal is to capture 5-10% of this market, representing a potential $2.83 billion to $5.66 billion opportunity,though actual results may vary based on market conditions and competition.
Immediate Impact: Our sodium-ion technology can address critical challenges facing data centers, including cost pressures, energy efficiency, and safety concerns.
Strategic Partnerships: The data center market offers opportunities for large-scale contracts and partnerships with major tech companies, potentially accelerating our growth and market penetration.
Technological Showcase: Success in the demanding data center environment could demonstrate the edge of our technology, potentially opening doors in other markets.
By focusing on data centers, we're positioning ourselves at the heart of the AI and tech revolution, where the need for innovative energy solutions is most urgent and the potential for growth is enormous.
How does the data center opportunity compare to the residential market, and why is it more lucrative at the moment?
While Next Thing Technologies sees significant potential in both the data center and residential markets, we currently view the data center opportunity as more lucrative for several reasons:
Scale and Speed: Data center projects typically involve larger-scale deployments and faster decision-making processes. For instance, Microsoft's $100 billion investment in data center leases demonstrates the massive scale of individual projects in this sector.
Immediate Demand: The AI boom has created an urgent need for data center capacity that outpaces current infrastructure. This immediacy can lead to faster adoption and implementation of our technology.
Higher Margins: Data center contracts often involve higher volumes and potentially higher margins compared to individual residential installations.
Fewer Regulatory Hurdles: While residential deployments often face local zoning and permitting challenges, data center projects typically have fewer regulatory barriers, allowing for quicker implementation.
Technological Demands: Data centers require high-performance, reliable energy storage solutions, aligning perfectly with the advanced capabilities of our sodium-ion technology.
Market Size: The data center market ($56.58 billion by 2032) offers a concentrated opportunity with fewer buyers to win, compared to the more fragmented residential market. It’s essentially the difference between a B2B sale versus a B2C sale, where fewer wins result in larger volumes sold.
Strategic Partnerships: Success in the data center market can lead to valuable partnerships with tech giants, potentially opening doors to other sectors, including residential.
That said, we still see significant value in the residential market and plan to address it in the future. Our focus on data centers allows us to refine our technology and build credibility in a demanding environment, which will ultimately benefit our residential offerings as well. The experience and scale we gain in the data center market will help us offer more competitive and proven solutions to homeowners down the line.
What government incentives support Next Thing Technologies' growth?
The U.S. government has created a highly favorable environment for clean energy innovation, particularly through the Inflation Reduction Act (IRA). This legislation provides significant support for companies like Next Thing Technologies in several ways:
Substantial Funding: The IRA has earmarked $369 billion in incentives for clean tech, including advanced battery technologies. This represents one of the largest investments in clean energy in U.S. history.
Tax Credits: As a U.S. battery producer, we're eligible for up to $45 per kilowatt-hour in tax credits. For a company developing energy storage solutions, this could translate into substantial savings and accelerated growth.
Domestic Manufacturing Boost: The IRA strongly encourages domestic production. Our partnership with American Battery Manufacturers aligns perfectly with this goal, potentially making us eligible for additional incentives.
Long-Term Stability: The IRA provides multiple incentives over multiple years for investing in energy products like ours. This long-term commitment allows us to plan and invest with greater confidence.
Potential for Additional Funding: Beyond the IRA, we're actively pursuing other government grants and incentives. Our innovative sodium-ion technology positions us well to compete for these additional funds.
Market Growth Stimulation: The IRA is expected to drive over $3 trillion in investments in clean energy over the next decade. This will likely increase demand for energy storage solutions like ours.
Research and Development Support: The IRA includes provisions to support ongoing R&D in clean energy technologies, which could benefit our continued innovation efforts.
Supply Chain Incentives: The Act encourages the development of domestic supply chains for critical materials, which aligns with our use of abundant, U.S.-sourced sodium.
Interconnection and Grid Enhancement: The IRA and other recently passed legislation provides funding for grid infrastructure improvements, which could accelerate the integration of large-scale energy storage solutions like ours.
These incentives not only provide direct financial benefits but also create a supportive ecosystem for the growth of companies like ours. The government's commitment to the clean energy transition significantly de-risks investments in this sector, making Next Thing Technologies an even more attractive opportunity for investors looking to capitalize on this national priority.
For example, as we scale up to gigawatt-level production, we could be classified as critical energy infrastructure. This could lead to additional government support and protection. The government may be incentivized to do this because we’re developing batteries the grid desperately needs with materials sourced from the United States and manufactured by American companies, resulting in American jobs.
How would a change in political administration affect Next Thing Technologies, especially considering the potential loss of incentives like those provided by the Inflation Reduction Act?
While the Inflation Reduction Act provides significant benefits, our business model isn't dependent on these incentives. We're building a company that can succeed based on the inherent advantages of our technology and its alignment with broader economic and security interests.
We believe Next Thing Technologies is well-positioned to thrive regardless of political shifts, for several reasons:
Bipartisan Appeal: Our technology addresses concerns from both sides of the political aisle. Democrats appreciate our contribution to green energy, while Republicans value our focus on American energy independence and domestic manufacturing.
Economic Benefits: Regardless of party affiliation, affordable, American-made batteries are good for the economy. They help keep energy prices down, which benefits consumers and businesses alike, including critical sectors like AI development.
American Manufacturing: Our focus on domestic production aligns with both parties' goals to strengthen U.S. manufacturing and reduce dependence on foreign suppliers.
Energy Security: In an era of increasing power outages and grid instability, our technology provides a solution that appeals to politicians and voters across the spectrum.
Technological Leadership: As the first U.S. company to build a home-ready sodium battery pack, we represent American innovation and leadership in a critical technology sector.
Job Creation: Our growth contributes to job creation in the U.S., a priority for any administration.
Critical Infrastructure: As we scale to gigawatt-level production, we could be classified as critical energy infrastructure. This status typically receives support and protection regardless of the administration in power.
Market Demand: Even without government incentives, there's a growing market demand for affordable, reliable energy storage solutions. Our technology is competitive on its own merits.
In short, whether the focus is on green energy initiatives or rebuilding American energy independence, Next Thing Technologies is positioned to play a crucial role. Our strategy is designed to be "politics-proof," ensuring that we can adapt and thrive under various political scenarios.
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