| A Thread size | M4x0.7 | |
| L Insert lengths | 4.8 mm | |
| OD Insert diameter | 6.3 mm | |
| P Pilot end | 5.5 mm | |
| Base panel material | Plastic | |
| H Hole diameter | 5.6-5.7 mm | |
| W Min. wall thickness | 2.1 mm | |
| Materials | Brass | |
| Surface Treatment | Cleaning | |
| Installation Equipment/Method | Heat Staking/Ultrasonic | |

Putting inserts into plastic parts: ultrasound or heat?
The use of threaded nuts and threaded metal inserts has become increasingly popular in enhancing the structural integrity of plastic components. These inserts provide a reliable method of creating strong, durable connections in plastic parts, which is critical for applications in industries ranging from automotive to consumer electronics. However, the method used to insert these threaded components (whether via ultrasonic or thermal techniques) can significantly impact the performance and longevity of the final product.
Ultrasonic thread inserts are a modern solution that use high-frequency vibrations to create a strong bond between the insert and the plastic material. This method is particularly advantageous because it minimizes thermal stress on the plastic, thereby reducing the risk of warping or degradation. The ultrasonic process allows for rapid insertion, making it ideal for high-volume production environments. In addition, the precision of ultrasonic insertion ensures that the threaded nut is firmly fixed, providing a strong connection that can withstand huge loads.
In summary, both ultrasonic thread inserts and hot melt thread inserts have their own unique advantages and applications in plastic part manufacturing. The choice between the two methods should be guided by the specific needs of the project, including material properties, production speed, and cost considerations. By carefully evaluating these factors, manufacturers can choose the most appropriate method to integrate thread inserts into plastic parts, ultimately improving the performance and service life of the product.




