As new industrial systems approach deployment, one question matters more than almost anything else: can this actually be built, deployed, and operated at scale?
For Gilead Dynamics, that question became central to the development of the Carbon Black Extractor (CBX) system. The Carbon Black Extractor is a mobile, modular tire processing unit designed to be deployed directly at the source of tire supply.
From the beginning, the focus has not been just on creating a new approach to tire recycling, but on designing a system that can operate outside controlled environments, in the variable conditions where tires actually exist. That’s why the Carbon Black Extractor was designed not just for performance, but for manufacturability, repeatability, and long-term operation.
Addressing deployment is a core part of that system. And that is why we’re partnering with ATS Industrial Automation.
Why Manufacturing Partners Matter
In many emerging industrial technologies, early prototypes demonstrate what is technically possible. They validate core processes, confirm outputs, and show that a concept can work under specific conditions. But moving from a working prototype to a deployable system is fundamentally different.
A prototype is often optimized for performance in a controlled setting. But a deployable system must operate consistently across different environments, with different operators, and under varying conditions over time. That transition introduces a new set of constraints that are often underestimated early in development.
It requires more than engineering innovation. It requires:
- Systems that can be consistently manufactured at a predictable cost
- Components that can be sourced, replaced, and supported over time
- Designs that can be assembled, transported, and deployed efficiently
- Equipment that can be operated and maintained
This is where many technologies encounter resistance. A system can work in isolation, but still fail when scaled due to complexity, variability, or a lack of alignment between design and manufacturing realities.
Bringing in a manufacturing partner early in the process changes that trajectory. It shifts development from proving that something can work to ensuring that it can work repeatedly, predictably, and over the long term.
The Role of ATS
ATS is a global provider of automated manufacturing systems, with decades of experience designing, building, and deploying complex industrial equipment across a range of industries.
Their role goes beyond fabrication. ATS operates across the full lifecycle of industrial systems – engineering, assembly, integration, testing, and deployment – bringing a level of industrial discipline that is difficult to replicate internally at an early stage.
Working with a partner that has built and deployed automation systems introduces a different decision-making framework. Design choices are evaluated not just for whether they achieve the desired output, but for whether they can be manufactured consistently, serviced in the field, and supported over time.
This includes considerations such as:
- Standardization of components and subsystems
- Assembly workflows and repeatability
- Integration between mechanical, electrical, and control systems
- Accessibility for maintenance and service
- Long-term reliability under continuous or distributed operation
These are often the determining factors in whether a system can move beyond early deployment.
What This Means for the Carbon Black Extractor
For Gilead Dynamics, the partnership with ATS represents a shift from concept validation to industrial validation of the Carbon Black Extractor platform.
It means that Carbon Black Extractor is being developed with real-world deployment in mind from the start, rather than being adapted to those requirements later:
- Components are selected based on availability, durability, and long-term support
- Systems are designed for repeatable assembly, not one-off builds
- Engineering decisions are informed by how Carbon Black Extractor will actually be transported, deployed, and operated in the field
- Subsystems are structured to support modularity, maintenance, and scalability
This reduces one of the largest sources of risk in industrial projects: moving from controlled success to consistent, real-world operation across multiple sites.
Designing Carbon Black Extractor for Deployment
One of the many advantages of this approach is that manufacturability is built into the system from the outset, rather than addressed later.
This has direct implications for how the system is designed and how it performs in the field. System architecture is influenced by how units will be produced and assembled. Physical layout is shaped by transport and deployment requirements. Integration between subsystems is structured to support reliability and serviceability.
All of this directly affects how Carbon Black Extractor expands over time.
Instead of relying on a single large, permanent installation, Carbon Black Extractor is designed to operate as part of a fleet. Multiple units can be deployed as a fleet, positioned where tire supply exists, and scaled incrementally as demand increases.
For that model to work, each unit must be consistent, reliable, and manufacturable at scale. Variability between units or assembly complexity can quickly undermine the advantages of a fleet approach.
By addressing manufacturability early, the Carbon Black Extractor avoids major redesigns and maintains consistency as deployment expands.
Why This Matters
In industrial markets, success is not determined by whether a system can work once. It is determined by whether it can work repeatedly, in different environments, and under real operating conditions.
The partnership between Gilead Dynamics and ATS is ultimately about ensuring that execution is built into the CBX from the beginning, rather than added later or solved after the fact. With ATS involved, the Carbon Black Extractor is set to be delivered, deployed and operated consistently at scale in the environments where it matters most.