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New Battery Chemistry Still Needs Proven Powder Handling

Part 1 of 4

Battery chemistry keeps advancing. Lithium iron phosphate. High-nickel cathodes. Silicon-rich anodes. Sodium-ion batteries. Solid-state electrolytes. But every new chemistry still has to be moved, weighed, stored, transferred and protected.

That is where proven manufacturing technology becomes valuable. Battery manufacturers do not necessarily need to invent new equipment for every new material. Many of the basic powder-handling challenges have already been solved in pharmaceutical, chemical, specialty-material and other powder-processing industries. The opportunity is to understand the new material, then adapt proven technology to the process.

Battery Manufacturing Has Entered a New Phase

Battery production is no longer a small emerging industry. According to the International Energy Agency’s Global EV Outlook 2026, EV battery deployment reached approximately 1.2 TWh in 2025, nearly 30% higher than in 2024. Global nameplate lithium-ion manufacturing capacity exceeded 4 TWh by the end of the year.

The challenge is increasingly about turning that capacity into consistent production. The IEA reports that new battery facilities can take more than five years to approach nominal output, while competitive production requires high yields and increasing automation.

Buying equipment is one thing. Getting the process to behave every day is another.

Start With Controlled Material Movement

Cathode and anode manufacturing can involve active materials, conductive additives, binders, graphite, silicon-containing materials and other fine powders. When those materials are handled poorly, the result can be dust, product loss, inconsistent feeding, contamination, unnecessary operator interaction and too many transfer points.

Closed Intermediate Bulk Containers (IBCs), contained discharge stations, vacuum-transfer systems, docking devices and enclosed weighing systems can help reduce those risks. At CPS/ICS, an IBC can be used to transport, store, blend and discharge material into the next process step, reducing the number of times a product has to move from one container or piece of equipment to another.

Every transfer eliminated is one less opportunity for material loss, contamination or operator exposure.

Think Beyond One Successful Batch

A laboratory may only need to prove that a process works. Production has to prove that it works again and again.

When production moves from kilograms to hundreds or thousands of kilograms, seemingly minor material-handling issues can become significant production problems. The question changes from “Can we make it?” to “Can we make it consistently, safely and efficiently?”

That is why battery-manufacturing equipment should start with the process rather than the catalog. What material are we handling? How does it flow? What can contaminate it? Where can it escape? How should it be stored? How should operators interact with it? What changes when production increases?

Once those questions are answered, proven powder-handling technology can be adapted around the application.

New Product. Familiar Problem.

Battery technology will continue to change. The physics of moving powder will not.

Gravity still works. Fine powder still becomes airborne. Materials can still bridge, segregate, compact or stick. Containers still have to connect to equipment, and operators still need a safe, practical way to run the process.

Battery manufacturers already have plenty of genuinely new problems to solve. Powder handling does not have to be one of them.

Coming Next

Getting powder from Point A to Point B is only part of the challenge. In the next article, we look at what happens inside the blend—and after it leaves the blender—including why consistent mixing and controlled transfer can be critical to battery production.

Related CPS Resources

Stainless steel in containment equipment

Why Stainless Steel Matters in Containment Equipment 

 When you buy containment equipment, material choice is not a footnote. It affects how the system performs, cleans, holds up, and how many surprises show up between quote and delivery. 

At Custom Powder Systems, stainless steel is a core material in the powder handling and containment systems we design and build for additive, industrial, chemical, pharmaceutical, food, and nuclear manufacturing environments. 

Stainless steel can be fabricated for custom designs, finished for sanitary requirements, and maintained over years of use. For engineering, operations, quality, and procurement teams, it is a material choice that holds up technically and practically. 

Domestic Sourcing Keeps More of the Story in View 

CPS sources stainless steel from U.S. suppliers and builds with approximately 99% U.S.-sourced materials, using imported components only when needed. 

That does not make every supply-chain problem disappear. It does mean fewer miles, fewer handoffs, and fewer places for trouble to hide. 

Domestic sourcing can help reduce exposure to tariff shifts, overseas freight swings, customs delays, longer lead times, and the general mess that shows up when supply chains stretch too far. 

For customers, it creates a clearer path from quote to finished system — with better visibility into material availability, fabrication timing, service needs, and project communication. 

Advantages of Using Stainless Steel in Containment Equipment

Tariffs Made the Conversation More Practical 

As of April/May 2026, stainless steel purchasing is not just a material conversation. It is a sourcing conversation, a tariff conversation, and a risk conversation. 

In June 2025, the United States increased Section 232 tariffs on many imported steel and aluminum articles from 25% to 50%. For equipment buyers, that matters because imported stainless can carry more cost uncertainty before it ever reaches the fabrication floor. (Federal Register) 

CPS cannot make the global metals market sit still. Nobody can. But sourcing stainless steel through U.S. suppliers keeps more of the purchasing story close to home and supports a build process that is easier to track from quote to finished system. 

For custom containment equipment, that kind of visibility is not a luxury. It helps keep the project moving. 

How Larger Manufacturers Are Responding 

Large manufacturers are not treating stainless steel tariffs like a temporary inconvenience. They are adjusting how they buy, source, document, and plan as well. 

Many are diversifying away from higher-risk import channels, shifting more purchasing toward U.S.-based suppliers, using longer-term supplier agreements, and paying closer attention to material origin and tariff exposure. (The White House) 

Customers get more than a strong material when stainless steel is sourced through U.S. suppliers and built into equipment in Springfield, Missouri.They get a shorter line of sight, fewer handoffs, cleaner communication, better traceability, and a team that can respond when questions come up. The material needs to perform on the floor, but the sourcing behind it also needs to hold up under review. 

What This Means for Equipment Buyers 

Stainless steel does not solve every purchasing problem. No material does. 

What it does offer is a strong combination of performance and planning stability. It supports cleanability, repairability, compliance, operator safety, product protection, lead-time planning, long-term support, and lifecycle value. 

At CPS, stainless steel is part of how we build containment equipment that is meant to work hard, clean well, and last. It supports the technical demands of regulated manufacturing while giving buyers a material story with fewer blind corners. 

Because when you are investing in custom containment equipment, the material behind the system should not add unnecessary risk. 

Stainless keeps the conversation practical. It performs well. Its pricing is usually easier to understand than less stable material categories. And when it is sourced through U.S. suppliers and built into equipment here in Springfield, Missouri, it helps create a clearer path from quote to finished system. 

equipment

We Don’t Just Build Equipment

At Custom Powder Systems, we believe manufacturing equipment should do more than function. It should solve problems. Whether you’re navigating strict containment requirements, managing complex material handling workflows, or launching a new line of high-potency APIs, we don’t just deliver stainless steel and schematics—we deliver peace of mind.

As a domestic supplier, Custom Powder Systems proudly designs, fabricates, and supports all of our systems in the United States. This gives our clients faster lead times, direct access to engineering support, and confidence in American-made quality and compliance.

Because at the end of the day, you don’t need equipment.
You need a solution.

From Problem to Process: Our Engineering-First Approach

Most equipment vendors ask, “What do you need us to build?”
We start by asking, “What problem are you trying to solve?”

Our engineering process begins with understanding your product, your process, and your compliance demands. Then, we design and fabricate systems that are purpose-built for your environment. This often means integrating containment, automation, ergonomic access, and cleaning protocols into one seamless solution.

Examples of our solution-first thinking:

  • Turning a crowded, multi-vendor process into a compact, CIP-ready production line
  • Designing a modular downflow booth that adapts to new product launches
  • Engineering IBC transfer systems that achieve sub-microgram OEL compliance

It’s Not Just What You Build. It’s How You Build It.

Our expertise spans a range of systems—including:

  • Downflow Booths
    Designed with airflow precision and operator access in mind, our booths meet ISO classifications and OEL targets for safe powder handling.
  • Isolators & Containment
    Custom-built for cytotoxic, hormonal, and sterile applications—designed to be ergonomic, cleanable, and easily integrated with upstream/downstream equipment.
  • IBC Blending and Transfer Systems
    Built for accuracy and hygiene, our IBCs and blending stations are configured to reduce dust, eliminate manual handling, and maximize space.
  • Custom Lifts & Manipulators
    Engineered to move heavy materials with ease and safety—tailored to facility layouts and operator workflows.

Every weld, every interface, and every component is built for performance, compliance, and reliability. We don’t do off-the-shelf. We do on-the-mark.

Compliance Isn’t Optional. And Neither is Ingenuity.

In regulated industries, there’s no margin for error. Whether you’re preparing for an FDA audit, scaling up high-potency production, or upgrading for ATEX compliance, our systems are designed to exceed expectations—because you can’t afford downtime, cross-contamination, or guesswork.

We engineer for:

  • 21 CFR Part 11 compliance
  • cGMP environments
  • Hazardous material zones
  • High-containment OEB 4–6 environments

And we back it all with documentation, validation support, and a collaborative engineering process that puts your team in the driver’s seat.

Your Partner in Innovation

We’re not a fabricator with a catalog. We’re an engineering partner who listens first, designs second, and builds third. Whether you’re in pharmaceuticals, nutraceuticals, specialty chemicals, or food processing—Custom Powder Systems is here to help you transform your challenges into high-performing, compliant solutions.

We build it right because we build it for you.

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The Power of Solid-State Batteries

Today, lithium-ion batteries are one of the most common sources of power for everyday devices from cell phones to cars. As these products continue to improve, so does the need for a more efficient energy source. The up-and-coming technology of Solid-State Batteries may just be the solution.


As technology develops by the day, more efficient energy sources are necessary for proper and effective functioning. Product improvements are accompanied by a demand for power that keeps up with them. Solid-State Batteries may be the solution that provides greater stability, safety, and energy density.

What are Solid-State Batteries?

In many of the devices we use today, lithium-ion batteries are a standard source of power. They utilize a flammable liquid electrolyte that balances the energy distribution between the cathode and anode, which is seen as more efficient than the lead-acid and nickel-metal hydride batteries used in the past. While we currently rely on lithium-ion batteries to power devices anywhere from our phones to our cars, they tend to be heavy and unstable in extreme temperatures.

Enter: Solid-State Batteries (SSB). As the name suggests, these batteries are composed of a solid electrolyte (typically ceramic, polymer, or glass) making them generally more stable and compact. With the material change, SSB are much lighter and have an energy capacity more than two times greater than lithium-ion batteries. They are also able to recharge significantly faster.

Additionally, with the removal of the flammable liquid electrolyte, SSB are safer in a wider range of temperatures and are less likely to overheat, meaning they are much less likely to catch on fire. The solid electrolyte also makes the batteries denser, allowing them to have a greater range of operation and be overall more efficient.

Currently, SSB are most commonly used in devices such as pacemakers, RFID, and wearable devices. And one of the biggest potential applications for SSB is in electric vehicles. According to Forbes, “Solid-state batteries promise fast, ubiquitous charging, and enough power to outrun ICE cars not just in the city, but on the fast lane of highways too on the long-distance race to the summer sun.”

What are Some of the Barriers to Success in this Industry?

Unfortunately, as promising as SSB are, they still have years of work to go before they are ready to be widely adopted. As research and experimentation goes, scientists have encountered issues with a variety of features, such as longevity. A significant flaw with SSB is the rapid degradation over charging cycles, causing an accumulation of lithium dendrites which can pierce the battery and lead to short-circuiting.

Other issues include conductivity and instability where the materials join. With a solid electrolyte, there is less particle mobility, preventing electrons from moving as freely as they otherwise would. This can also have a negative impact on the construction of the batteries, as it is more difficult to connect solid materials together as opposed to working with a liquid that has no fixed shape.

Also, in theory, SSB are believed to be able to be significantly less expensive than the current lithium-ion options. However, it has become a challenge to scale SSB, which are currently used in small devices, to larger applications. As of yet, no company has successfully been able to mass-manufacture SSB so that they are cost-effective enough to benefit the general public.

While there are some current barriers to widely-adopting Solid-State Battery technology, all good engineering takes time and experimentation. Looking toward the future, there is still extreme potential in this revolutionary power source and its potential applications.

What Can CPS Do?

The world of batteries is rapidly evolving, with new changes and developments each day. At CPS, we pride ourselves on our ability to take on challenges and learn new things every day. While we don’t make SSBs ourselves, we are great at supporting the people that do.

Many companies currently working with SSB technology are in the research and development phase, experimenting with small batches and basic processes. This means that they typically don’t have the proper equipment to be able to scale their projects as demand increases. Our job is to provide these companies with new solutions for containment, blending, transport, and handling to progress from grams at a time to hundreds of kilograms at a time. And, we are able to completely custom build the base equipment so they seamlessly integrate with the systems these companies already have in place.

The other main concern we address is safety, as oxidized lithium can release extremely combustible gasses. By upgrading a company’s current storage method to efficient Intermediate Bulk Containers (IBC), we can significantly decrease the risk of both explosions and human inhalation of toxic gasses. Depending on the customer’s needs, we can also utilize various tools such as contained transfer devices, accurate dosing scales, clean docking Jet-Wash transfers, and blending systems.

At Custom Powder Systems, we love staying up-to-date with the most current engineering trends. If there are new technologies you’d like to explore, let us know how we can help!


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