Abstract: An ultrasonic tool having a sonotrode having a single weld region and two nodal regions formed on either side of the weld region. Two rigid mount boosters are each coupled to either side of the weld region. One transducer is coupled to one of the rigid mount boosters. Two ultrasonic stack mounting rings are each configured to be coupled to a housing assembly at a non-nodal region and coupled to one of the rigid mount boosters at a nodal region.

Abstract: An ultrasonic tool having a sonotrode having a single weld region and two nodal regions formed on either side of the weld region. Two rigid mount boosters are each coupled to either side of the weld region. One transducer is coupled to one of the rigid mount boosters. Two ultrasonic stack mounting rings are each configured to be coupled to a housing assembly at a non-nodal region and coupled to one of the rigid mount boosters at a nodal region.

Abstract: A system for ultrasonic assisted electrical discharge machining of a component part having a longitudinal axis, a half wavelength resonant frequency along the longitudinal axis and an attachment portion, is provided. The system includes an ultrasonic horn having a longitudinal axis, a half wavelength resonant frequency along the longitudinal axis and an attachment portion. The half wavelength resonant frequency of the ultrasonic horn is the same as the half wavelength resonant frequency of the component part. Additionally, one of the attachment portion of the component part and the attachment portion of the ultrasonic horn is a male part and the other one of the attachment portion of the component part and the attachment portion of the ultrasonic horn is a female part sized and shaped to mate and engage one another when the component part and the ultrasonic horn are at generally the same temperature.

Abstract: A system for ultrasonic assisted electrical discharge machining of a component part having a longitudinal axis, a half wavelength resonant frequency along the longitudinal axis and an attachment portion, is provided. The system includes an ultrasonic horn having a longitudinal axis, a half wavelength resonant frequency along the longitudinal axis and an attachment portion. The half wavelength resonant frequency of the ultrasonic horn is the same as the half wavelength resonant frequency of the component part. Additionally, one of the attachment portion of the component part and the attachment portion of the ultrasonic horn is a male part and the other one of the attachment portion of the component part and the attachment portion of the ultrasonic horn is a female part sized and shaped to mate and engage one another when the component part and the ultrasonic horn are at generally the same temperature.

Abstract: A fabric having a backing layer with a lower surface, at least a portion of the backing layer adjacent the lower surface being formed from a thermoplastic material, is provided. At least the lower surface of the backing layer is heated in order to soften the lower surface of the backing layer, and a die having a surface in which are formed a plurality of recesses is forced into the softened lower surface of the backing layer in order to create a plurality of raised areas protruding from the lower surface of the backing layer. The fabric is placed on the substrate so that the raised areas protruding from the lower surface of the backing layer are in intimate pressurized contact with the substrate at an interface thereof, and a vibration or orbital welding process is performed thereon to achieve a bond therebetween.

Abstract: A fabric having a backing layer with a lower surface, at least a portion of the backing layer adjacent the lower surface being formed from a thermoplastic material, is provided. At least the lower surface of the backing layer is heated in order to soften the lower surface of the backing layer, and a die having a surface in which are formed a plurality of recesses is forced into the softened lower surface of the backing layer in order to create a plurality of raised areas protruding from the lower surface of the backing layer. The fabric is placed on the substrate so that the raised areas protruding from the lower surface of the backing layer are in intimate pressurized contact with the substrate at an interface thereof, and a vibration or orbital welding process is performed thereon to achieve a bond therebetween.

Abstract: A method for vibration or orbital welding of a fabric to a thermoplastic substrate includes forming an assembly which has a decorative outer face without markings or pin dents that need to be removed or brushed out. The fabric can be woven or non-woven material and usually is characterized by high and low density regions that are bonded to a thermoplastic substrate in a vibration welder having a smooth surfaced platen applying pressure to the exposed surface of the fabric. High quality bonds or vibration welds are obtained between a fabric and a thermoplastic substrate characterized by a textured surface having tiny raised regions.

Abstract: A method for vibration or orbital welding of a fabric to a thermoplastic substrate includes forming an assembly which has a decorative outer face without markings or pin dents that need to be removed or brushed out. The fabric can be woven or non-woven material and usually is characterized by high and low density regions that are bonded to a thermoplastic substrate in a vibration welder having a smooth surfaced platen applying pressure to the exposed surface of the fabric. High quality bonds or vibration welds are obtained between a fabric and a thermoplastic substrate characterized by a textured surface having tiny raised regions.