Robotic Palletising
We design advanced robotic palletising cells that deliver exceptional performance with various palletising robots. Our robotic palletisers meet UK industry standards for reliability and efficiency. Whether enhancing productivity or streamlining logistics, our solutions are customized to your needs while ensuring quality and safety.
Looking for Palletising Robots to Speed Up Your Process?
Phoenix offers customised robotic palletising tailored to your unique needs, ranging from a single palletizing cell to a multi-line system. Our robotic solutions include pallet grippers, safety equipment, and I/O on the control panel. We understand that every business has distinct requirements, which is why we provide bespoke solutions.
We also partner with reputable palletising robot suppliers to enhance efficiency on conveyors. If you are uncertain about the cost of a palletizing robotic cell, please click on our Robotic Calculator to get an estimate of the expenses.
Main Robotic Palletising Components
Robotic Arms
Robotic arms are responsible for stacking and de-stacking items on pallets.
End-Effectors
End-effectors are the components that attach and hold products in place during the stacking process.
Controllers
Controllers are the brains behind the system, responsible for programming and operating the robotic components.
Conveyors
Conveyors connect different parts of the system and allow for smooth movement of products.
Pallet Dispensers
Pallet dispensers hold unused pallets and automatically dispense new ones as-needed.
Safety Fences
Safety fences create a barrier between the system and the surrounding environment, ensuring the safety of workers.
Sensors
Sensors monitor the system and help prevent accidents or malfunctions by detecting problems early on.
Control Systems
Control systems is responsible for the communication between components and allows for efficient system management.
Basic Palletising Robots Arrangement
Lorem ipsum dolor sit amet, consectetur adipiscing elit. Ut elit tellus, luctus nec ullamcorper mattis, pulvinar dapibus leo.
- Robotic Arm and End Effector:
- Design the end effector based on the products handled. Position the robotic arm centrally for optimal reach.
- Infeed Conveyor System:
- Deliver products to a pick-up point within the robot’s reach.
- Ensure sufficient buffer space for accumulation.
- Pallet Dispenser:
- Place the dispenser near the palletising zone for easy access.
- Store enough pallets to minimize downtime.
- Rocotic Palletising Zone:
- Designate an area for stacking products onto pallets.
- Ensure the area is within the robot’s reach for efficiency.
- Finished Pallet Conveyor or Storage:
- Position the area adjacent to the palletizing zone.
- Transport completed pallets to shipping or storage.
- Safety Enclosures:
- Install fences around the cell to protect workers.
- Include safety gates with interlocks for access.
- Control Systems:
- Place control panels outside the safety enclosure for easy access.
- Sensors and Vision Systems:
- Position sensors and cameras for product identification and control.
Designing the arrangement of a palletising robot involves careful consideration of various components to ensure efficiency, safety, and smooth operation. Below is a detailed guide on how to configure a palletizing robot cell:
Key Components
- Robotic Arm
- End Effector
- Infeed Conveyor System
- Pallet Dispenser
- Palletizing Zone
- Finished Pallet Conveyor or Storage
- Safety Enclosures
- Control Systems
- Sensors and Vision Systems
FAQs on Technical Palletising Robots
What is a robotic palletiser?
A robotic palletizer is an automated system that uses robotic arms to stack and arrange products onto pallets for storage and transportation.
How do robotic palletising work?
Robotic palletisers use programmed instructions, sensors, and end-of-arm tooling to pick products from a conveyor or other source and place them accurately on a pallet according to a specified pattern.
What are the main components of a robotic palletising?
Main components of Robotic Palletising
Key components include the robotic arm, end-of-arm tooling (such as grippers or suction cups), sensors, control systems, and programming software.
What types of grippers are used in robotic palletising?
Common grippers include vacuum grippers, mechanical grippers, and magnetic grippers, selected based on the products being handled.
What is the payload capacity of a typical robotic palletising?
Payload capacities can range from 10 kg to over 500 kg, depending on the robot model and application.
What is the typical cycle time for a robotic palletising?
Robot Palletiser typical cycle time
The cycle time can vary but generally ranges from 5 to 15 seconds per cycle, depending on the task complexity and product characteristics.
How long does it take to install a robotic palletiser?
Installation times can range from a few days to several weeks, depending on the system’s complexity and site readiness.
Can robotic palletisers be integrated with existing systems?
Yes, they can be integrated with existing conveyor systems, automated guided vehicles (AGVs), and other automation equipment for seamless operation.
What kind of software is used to program robotic palletisers?
Software for robotic palletising
Robotic palletizers use specialized software provided by the robot manufacturer, which often includes user-friendly interfaces for programming and customization.
How reliable are robotic palletisers?
Robotic palletisers are highly reliable, with mean time between failures (MTBF) often exceeding thousands of hours, depending on the operating conditions and maintenance practices.
How reliable are robotic palletisers?
Payload capacities can range from 10 kg to over 500 kg, depending on the robot model and application.
What maintenance is required for robotic palletisers?
Maintenance of Palletiser Robots
Regular maintenance includes checking and replacing wear parts, updating software, lubricating moving parts, and performing calibration checks.
How can I ensure optimal performance of my robotic palletising?
Regular maintenance, proper training for operators, and using high-quality components and software updates are essential for optimal performance.
Can robotic palletising handle different product sizes and shapes?
Yes, modern robotic palletisers can be reprogrammed and equipped with various grippers to handle a wide range of product sizes and shapes.
How easily can a robotic palletiser be reprogrammed for a new task?
Reprogramming a robotic palletizer is relatively straightforward with the right software, allowing quick adaptation to new products or pallet patterns.
What is the cost of a robotic palletising?
Robotic Palletising Cost
The cost varies widely based on the robot’s capabilities and additional features, typically ranging from $50,000 to $200,000 or more.
What is the expected ROI for investing in a robotic palletiser?
ROI depends on factors like labour cost savings and increased productivity, with many businesses seeing payback within 1 to 3 years.
Are robotic palletizers safe to operate?
Yes, they are designed with multiple safety features such as sensors, emergency stop buttons, and safety cages to ensure safe operation around humans.
Do robotic palletizers comply with industry standards?
Standards Robot Palletising
Most robotic palletisers comply with industry safety and operational standards, such as those set by ISO and ANSI.
What are the future trends in robotic palletising?
Future trends include increased use of artificial intelligence (AI) and machine learning for smarter operation, the development of collaborative robots (cobots), and advancements in gripper technology.
Top advantages of Palletising Robots
Palletising robots offer a range of advantages in various industrial and manufacturing settings. By leveraging these advantages, businesses can enhance their operational efficiency, reduce costs, improve safety, and maintain high-quality standards in their palletizing processes.Here are some of the key benefits:
Increased Efficiency and Productivity: Robots work continuously without breaks, significantly boosting throughput and production rates.
Consistency and Precision: Robots ensure precise and consistent product placement, maintaining high-quality palletizing standards.
Cost Savings: Robots reduce labor costs and enhance efficiency, leading to overall cost savings.
Improved Safety: Robots handle heavy lifting and operate safely in hazardous environments, reducing injury risks for human workers.
Flexibility: Robots are reprogrammable to handle different pallet patterns, products, and configurations, and seamlessly integrate with other automated systems.
Main Components of the Palletising Robot Cell
A palletising robot cell is a system designed to automate the process of stacking and organising products onto pallets. It typically includes several key components, each playing a vital role in the efficiency and functionality of the system. Here are the main components:
Essential for a Single Robotic Palletising Cell
- Robotic Arm:
– Main part of palletising cell for moving products onto pallet.
– Flexible 4-axis or 6-axis robot arm. - Gripper (End Effector):
– Tool on robot arm for grasping, lifting, and relocating products.
– Various grippers like vacuum, mechanical, magnetic, or custom tools. - Pallet Dispenser:
– Provides empty pallets for stacking by the robot.
– Ensures continuous pallet supply. - Safety Fencing and Sensors:
– Protective barriers and safety sensors.
– Includes light curtains, mats, and scanners for human safety. - Programming:
– Robot instruction programming environment.
Optional Palletising Equipment for the Robots
- Conveyor System:
– Moves products to palletising area.
– Uses roller, belt, or chain conveyors based on product type. - Pallet Dispenser:
– Provides empty pallets for stacking by the robot.
– Ensures continuous pallet supply. - Pallet Conveyor:
– Transports pallets for loading and transportation.
– Syncs with the robot’s movements. - Control System (PLC or Robot Controller):
– Main unit controlling palletising process.
– Consists of PLC, Robot Controller with HMI. - Vision System (Optional):
– Camera system for product recognition and inspections.
– Assists in correct placement and defect identification. - Software
– Software for path planning and pattern creation. - HMI (Human-Machine Interface):
– Interface for monitoring and controlling robot cell.
– Shows real-time data and allows manual adjustments.
These components work together seamlessly to form an efficient palletising solution that excels in handling high throughput levels and guarantees a high standard of stacking quality. This integrated system optimizes warehouse operations, increases productivity, and enhances supply chain management.
Robotic palletising offers reliability, precision, and versatility, making it a top choice for businesses seeking cutting-edge palletising solutions. Learn more about Industrial Robot Safety.
Robotic Palletising for Small Businesses
For small and medium-sized enterprises (SMEs), selecting the right type of palletizing robot involves balancing factors like cost, flexibility, ease of use, and space constraints. Here are the most suitable types of robots for palletising in SMEs:
The most suitable types of palletizing robots for small to mid-size businesses are:
- Collaborative Robots (Cobots): Small, affordable robots that work safely with humans and are easy to program. Ideal for limited space palletizing tasks in SMEs.
- SCARA Robots: Known for speed and precision in pick-and-place tasks. Suitable for high-speed palletizing in electronics and consumer goods.
- Cartesian Robots: Simple design, cost-effective. Ideal for large products in woodworking and metalworking.
- Delta Robots: High speed and precision for small product handling. Suitable for high-speed sorting in food and pharmaceutical industries.
For SMEs, Collaborative Robots (Cobots) and SCARA Robots are often the most attractive options due to their ease of use, flexibility, and lower costs. Low-cost articulated robots and Cartesian robots offer additional versatility, while Delta robots are ideal for high-speed, lightweight applications. AGVs with mounted robot arms provide advanced flexibility, especially in dynamic environments..
Leader in automation systems
Experts in industrial automation and robotics integration. Providing Innovative Robotic Cell solutions
Dedicated four axis palletising robot
In the case of the dedicated palletising robot there are only four axes as opposed to six. This means that the tooling is limited in orientation to rotation solely around the vertical axis of the gripper.
However, the majority of palletising operations do not require any tilting of the product. It means that the advantage in using a dedicated palletising robot will be that the robot speed will generally be quicker and hence a reduced cycle time.
Robot Control Panel
To control the complete cell a safety panel with cell control pushbuttons will be installed which is electrically connected to the robot controller. This panel will include the safety relays for the two safety circuits for the robot and any ancillary equipment.
One circuit will be for the Estops, these will stop the robot in all modes. The second circuit will be for the cell access and this will stop the robot and spindle whenever the robot is running in Auto mode.
Palletising Cell Design
The robot cell will also need some form of guarding which will form an enclosure to make sure that nobody is present whilst the robot is working in automatic.
The usual layout for a palletising cell is to have two pallet locations with the robot in the middle of the two. The robot will palletise to one side and once completed will move over to palletise the second side. Whilst the robot is working on the second pallet the first pallet is removed and replaced with a new empty pallet.
Each of the pallet stations will have two sets of light curtains to protect the operator. The front light curtain will be active and the robot sidelight curtain muted whilst the robot is working on that station.
If the operator were to try and enter the cell the active light curtain will stop the robot. In the case of a completed pallet, the operator will select to enter the station and this will activate the light curtain on the robot side.
It mutes the light curtain at the entrance to the station allowing the operator to enter without interrupting the sequence. Even so, if for any reason the robot tries to enter the station during this time the active light curtain will detect the intrusion and stop the robot.
Palletising Robot Gripper
Fitted to the robot will be some form of gripper for picking up the product. There are different types of grippers depending on the product and the required stacking pattern.
In the case of a pneumatic finger type gripper, this will open around the product and have fingers that close to clamp the product to stop it from moving during the movement of the robot. However, when using this type of gripper you must consider the stack pattern. Why? Because at the moment of placing the product the gripper will open and push any product that is already palletised.
Usually, when using this type of gripper the product is released above its position in order that the gripper has room to open.
Vacuum System for Palletising
An alternative solution is to use a vacuum system rather than fingers for picking up the product. In this case, the product is held in place by an array of suckers which usually grip the product from its upper surface.
This system has the advantage that tight stacking patterns can be produced allowing the products to be placed up against products already on the pallet.
Conveyor System for Palletising
The product will normally be delivered to one or more pickup points usually in the form of a conveyor.
Therefore, the robot requires a separate PLC to manage the conveyor. This PLC will be part of the machine that is manufacturing or bagging the product.
The interface between the robot and the conveyor is simply the detection of the absence of the pick point being vacant with a combination of the robot clear signal and product present detection.
Robotic palletising cell design
Phoenix provides a complete turnkey solution for palletising robot cells. We work together with all robot manufacturers such as KUKA, ABB, AND FANUC just to mention a few.
TOP MANUFACTURING ROBOT APPLICATIONS
Painting Robots
We typically associate painting robots with the automotive industry. However, there is now a growing interest in paint robots for smaller applications.
Milling Robots
The milling cell offers a high level of flexibility and accuracy, as industrial robots can create high-quality, complex, and uniquely geometric parts.
Welding Robots
Robotic welding provides a competitive edge by automating processes and enhancing production efficiency, improving the quality and consistency of welded products.
Assembly Line robots
Assembly line robots are specialized machines that enhance manufacturing efficiency in automotive and electronics industries. They improve productivity and accuracy by performing repetitive tasks quickly and reliably, transforming production lines and adapting to changing demands.
Palletising Robots
Palletising robots are advanced machines that stack products onto pallets for shipment. They organize items quickly and with precision. Operators can easily remove the full pallet for distribution or storage, boosting productivity and reducing human error in the supply chain.
Trimming & Cutting Robots
Robotic cutting and trimming involve precise material removal along a predetermined path using advanced algorithms. These technologies improve efficiency and accuracy in manufacturing, reducing waste and enhancing product quality.
Turnkey Industrial Robot Solutions
Phoenix integrates and installs complete robotic milling solutions from initial design and consultation to manufacture. Also, we offer robot training, robot programming, robot simulation, commissioning, and technical support. Whether you decide to configure your complete milling robot cell, around a new robot or reconditioned robot.