CASE STUDY | Bundle palletizer with multi-functional end-of-arm tooling
By: Alyssa Bardol
Automating palletizing for a new U.S. production line
A building products manufacturer was launching a new U.S. facility to support rising demand for its finishing compound product. At the start of the quoting process, the product was still being shipped from overseas but market demand had justified a full domestic line. They needed a robotic palletizing system that could support startup production while remaining flexible enough to scale with any future growth for their new facility.
The challenge: Palletize bundles from a multi-OEM line
The line included equipment from multiple OEMs: a filler and bundler upstream and a stretch hooder downstream. They needed to palletize the bundles being generated upstream. To do that, they needed to place a pallet, place a slip sheet and start stacking loads on those pallets.
The standard approach would be three separate pieces of equipment to handle each function: a pallet dispenser, a slip sheet dispenser and a robotic palletizing cell. That increases footprint, cost and maintenance overhead.
We took a different path: what if the robot could do all three?
The PASCO approach: Design around the robot
What made this different wasn’t just the tooling alone, it was how we approached the problem.
We look at the rate, the space and what the robot can realistically handle. Then we ask what’s actually necessary. In this case, once we assessed the rates they needed to meet and the capability of the robot itself, we realized the robot had the bandwidth to do more than just palletize. So we designed the tooling to let it handle multiple functions.
We build systems this way on purpose. Not over-complicated. Not overbuilt. Clean, efficient, and designed to scale with the customer, not fight them later.
The end-of-arm tool was designed in-house to handle all three functions. That decision removed two major subsystems entirely, which made the cell smaller in size, easier to maintain and more cost effective for the customer. The robot stayed active throughout each cycle, doing more with every move.
By consolidating those functions into a single tool, the robot became the core material handler of the system, reducing the overall component count. That translates directly to lower capital cost, fewer failure points and shorter install time.
Why slower rates were a design advantage
The customer’s initial required production rate was relatively modest, which made this multifunctional tooling strategy a perfect fit. Because the robot wasn’t under time pressure, it could perform all three tasks without compromising cycle time. This gave us the freedom to design for function, not just speed.
And like every system we build, it wasn’t just designed for startup. The robot, EOAT and cell were all sized to support higher speeds and future throughput with no redesign needed.
Seamless integration across OEM boundaries
The bundle palletizer was designed to install between upstream and downstream equipment from different providers. Thanks to a clean plant layout provided early in the project, we were able to dimension the system precisely and align every handoff point — pallet entry, bundle pickup, final stack discharge — with surrounding systems.
Even when working with multiple OEMs, the integration held up because everything on our side was engineered for clarity and fit.
Built for practical efficiency
We focused on where automation would create the most value, not the most complexity. The result is a robotic palletizing system that:
Handles three functions with one robot
Has fewer moving parts and simpler maintenance
Fits tight footprints in new facilities
Integrates cleanly with third-party equipment
Leaves headroom to scale with production growth
Results at a glance
Multifunctional EOAT: One tool handles pallets, slip sheets, and product
Lower total cost of ownership: Fewer devices, fewer maintenance points
Robot-driven efficiency: Smarter tooling with fewer wasted movements
Tight integration: Aligned precisely with upstream and downstream systems
Scalable design: Ready to support future throughput increases
Ready to optimize your palletizing process?
Looking for a robotic palletizer that works harder without costing more? Let’s talk about how smart tooling and efficient design can deliver more from day one and keep delivering as your line evolves.
What are the common applications of industrial automation?
Common applications of industrial automation include packaging, palletizing, material handling, quality control, and assembly processes, helping manufacturers improve efficiency, consistency, and safety in their production workflows.
What are the benefits of automated palletizing systems?
Automated palletizing systems offer increased efficiency, accuracy, and consistency in packaging processes, enabling businesses to streamline operations, reduce labor costs, and enhance product quality.
How does automated equipment enhance product quality?
Automated equipment enhances product quality by ensuring consistent manufacturing processes, reducing human error, and enabling real-time quality control monitoring to identify and rectify issues promptly.
What is the initial investment for automated equipment?
The initial investment for automated equipment can vary depending on the complexity of the system, the features required, and the scale of the operation. Automated equipment can require significant upfront costs, but the long-term benefits of increased efficiency and reduced labor costs can often justify the investment.
How does industrial automation improve worker safety?
Industrial automation reduces worker exposure to hazardous tasks, minimizing safety risks and improving overall workplace safety by automating dangerous processes and reducing the need for human intervention.
What types of industries use automated equipment most?
Industries that rely heavily on automated equipment include manufacturing, packaging, warehousing, and logistics, where automated systems improve efficiency, productivity, and consistency in repetitive tasks.
What is the primary goal of industrial automation in manufacturing?
The primary goal of industrial automation in manufacturing is to improve efficiency, productivity, and consistency in the production process.
What are the benefits of using automated equipment in manufacturing?
The benefits of using automated equipment in manufacturing include increased efficiency, improved product quality, reduced labor costs, and enhanced safety in harsh industrial environments.
Can automated equipment be integrated with existing systems?
Yes, automated equipment can typically be integrated with existing systems. PASCO's automation solutions are designed for seamless integration, allowing clients to enhance their existing operations with advanced packaging and processing capabilities.
What is the role of robotics in industrial automation?
Robotics plays a crucial role in industrial automation by enhancing precision, speed, and efficiency in manufacturing processes, enabling businesses to optimize production, reduce errors, and increase overall productivity.
What types of products are commonly palletized?
Common products palletized are items such as packaged goods, boxes, crates, drums, and other bulk materials that can be stacked efficiently for storage and transportation.
How does industrial automation reduce production costs?
Industrial automation reduces production costs by improving efficiency, reducing labor expenses, and increasing output consistency and quality, leading to lower overall operational costs.
Can industrial automation replace human workers completely?
Industrial automation can enhance productivity and efficiency, but completely replacing human workers may not be feasible or desirable in many industries due to the need for specialized skills, flexibility, and human judgment.
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