
FAQs
Frequently Asked Questions
It depends on the specific design and capabilities of the overweight parts AGV. Some models may be suitable for outdoor operation, while others may not be. Factors such as weather resistance, terrain handling, and navigation abilities in unpredictable environments would need to be considered. It’s best to consult with the AGV manufacturer to determine if their overweight parts AGV is suitable for outdoor operation.
In simple terms, error tolerance refers to the acceptable deviation from a set target or standard. When it comes to a heavy load AGV’s positioning system, it’s the amount of error that can occur between the AGV’s actual position and its intended position. This error can be in terms of distance, angle, or both.
For example, if an AGV is supposed to stop at a specific loading dock with an error tolerance of ±5 mm, it means that the AGV can stop anywhere within a 10 – mm range (5 mm before or 5 mm after the exact target point) and still be considered to have achieved an acceptable position.
Overweight Parts Trans AGVs are automated guided vehicles designed to transport and move overweight industrial parts and equipment. These AGVs are equipped with heavy-duty frames, motors, and wheels to support and move objects weighing up to several tons. They often operate in manufacturing, automotive, aerospace, and other heavy-industry sectors to transport large and heavy objects from one location to another without the need for manual labor. Overweight Parts Trans AGVs are a cost-effective solution for improving efficiencies and reducing the risk of workplace injuries associated with heavy lifting.
Generally speaking, AGVs may vary in size, load capacity, and type of operating environment. Some AGVs can operate in hazardous or explosive environments, while others are designed for use in clean rooms or medical facilities. Different AGVs also have different levels of autonomy and navigation technology. Therefore, without specific information about the AGV, it is difficult to determine its unique characteristics.
The two most prevalent battery types are lead – acid batteries and lithium – ion batteries.
Lead – acid batteries have been a traditional choice due to their relatively low cost and wide availability. They are robust and can withstand a certain degree of abuse. However, they have a lower energy density compared to lithium – ion batteries, which means they may require more space and have a shorter runtime.
Lithium – ion batteries, on the other hand, offer several advantages. They have a higher energy density, which allows for longer runtimes and smaller battery sizes. They also have a longer lifespan and faster charging times. However, they are generally more expensive than lead – acid batteries.
Opportunity charging is a method where the AGV charges during short breaks in its operation. For example, when the AGV is waiting at a station for a task to be completed or during a scheduled pause in its route. This method is particularly suitable for applications where the AGV has frequent short breaks.
The advantage of opportunity charging is that it can keep the battery at a relatively high state of charge, reducing the need for long charging sessions. It also allows the AGV to operate continuously for extended periods. However, it requires a well – designed charging infrastructure, including charging stations strategically placed along the AGV’s route.
Conductive charging is one of the most common methods for charging AGV batteries. In this method, the AGV physically connects to a charging station through conductive pads or connectors. When the AGV reaches the charging station, it aligns itself with the charging contacts, and the charging process begins.
Conductive charging is reliable and efficient. It can deliver a high charging current, which means the battery can be charged quickly. However, it requires precise alignment between the AGV and the charging station, and the charging contacts need to be kept clean to ensure a good electrical connection.
Inductive charging is a contactless charging method that uses electromagnetic fields to transfer energy from the charging station to the AGV’s battery. The charging station has a primary coil, and the AGV has a secondary coil. When the AGV is in close proximity to the charging station, an alternating current in the primary coil creates a magnetic field, which induces a current in the secondary coil, charging the battery.
The main advantage of inductive charging is its convenience. There is no need for physical contact between the AGV and the charging station, which reduces wear and tear on the charging components. It also allows for more flexibility in the positioning of the AGV during charging. However, inductive charging is generally less efficient than conductive charging, and it may require a longer charging time.

