Abstract: Ultrasonic waveguides having improved velocity gain are disclosed for use in ultrasonic medical devices. Specifically, the ultrasonic waveguides comprises a first material having a higher acoustic impedance and a second material having a lower acoustic impedance.

Abstract: Ultrasonic waveguides having improved velocity gain are disclosed for use in ultrasonic medical devices. Specifically, the ultrasonic waveguides comprises a first material having a higher acoustic impedance and a second material having a lower acoustic impedance.

Abstract: Ultrasonic waveguides having improved velocity gain are disclosed for use in ultrasonic medical devices. Specifically, the ultrasonic waveguides comprises a first material having a higher acoustic impedance and a second material having a lower acoustic impedance.

Abstract: Disclosed is a method for manufacturing an ultrasonic horn for transporting ultrasonic energy to an operating location.

Abstract: Disclosed is a method for manufacturing an ultrasonic horn for transporting ultrasonic energy to an operating location.

Abstract: An ultrasonic horn assembly for applying ultrasonic energy at an operating location which assembly includes a connector between horn assembly components which provides uniform clamping pressure between transfer faces of the components.

Abstract: An ultrasonic horn assembly for applying ultrasonic energy at an operating location which assembly includes a connector between horn assembly components which provides uniform clamping pressure between transfer faces of the components.

Abstract: An ultrasonic horn assembly for applying ultrasonic energy at an operating location which assembly includes a metallic fusion zone at an interface between adjacent horn assembly components. A method of manufacturing an ultrasonic horn assembly including forming this metallic fusion zone.

Abstract: An ultrasonic horn having substantially uniformly isotropic radial expansion and contraction amplitude in all radial directions upon excitation. The horn has a microstructure characterized by isotropically random directional grain alignment. A method for manufacturing a horn.

Abstract: An ultrasonic rotary horn is repaired by removal of deteriorated metal condition from the horn energy transfer surface, and application and consolidation of metal powder to the horn radial surface. An ultrasonic rotary horn having a repaired radial energy transfer surface.

Abstract: An acoustical energy transfer component for transporting acoustical energy, the component having a shaped metal component body having a substantially uniformly isotropic expansion and contraction amplitude upon acoustical excitation. A method of manufacturing an acoustical energy transfer component having a component body with a uniformly isotropic expansion and contraction amplitude upon acoustical excitation.

Abstract: An acoustical energy transfer component for transporting acoustical energy, the component having a shaped metal component body having a substantially uniformly isotropic expansion and contraction amplitude upon acoustical excitation. A method of manufacturing an acoustical energy transfer component having a component body with a uniformly isotropic expansion and contraction amplitude upon acoustical excitation.

Abstract: An ultrasonic rotary horn is repaired by removal of deteriorated metal condition from the horn energy transfer surface, and application and consolidation of metal powder to the horn radial surface. An ultrasonic rotary horn having a repaired radial energy transfer surface.

Abstract: An ultrasonic horn having substantially uniformly isotropic radial expansion and contraction amplitude in all radial directions upon excitation. The horn has a microstructure characterized by isotropically random directional grain alignment. A method for manufacturing a horn.

Abstract: An ultrasonic horn assembly for applying ultrasonic energy at an operating location which assembly includes a metallic fusion zone at an interface between adjacent horn assembly components. A method of manufacturing an ultrasonic horn assembly including forming this metallic fusion zone.

Abstract: An ultrasonic horn assembly for applying ultrasonic energy at an operating location which assembly includes a connector between horn assembly components which provides uniform clamping pressure between transfer faces of the components.

Abstract: An apparatus and method for bonding at least two continuously moving substrate webs together is disclosed. The apparatus comprises a rotatable bonding roll which is located adjacent the substrate webs and configured to rotate about a bonding axis. A rotatable anvil roll has an anvil surface and is configured to rotate about an anvil axis to press the substrate webs against an outer peripheral bonding surface of the bonding roll thereby bonding the substrate webs together. The anvil roll is pivotally connected to a pivotal support mechanism which is configured to maintain the anvil surface in a substantially parallel relationship with the bonding surface. The pivotal support mechanism is configured to allow the anvil roll to pivot such that the anvil roll maintains a substantially constant force on the bonding surface of the bonding roll across the width of the anvil roll.

Abstract: An apparatus and method for bonding at least two continuously moving substrate webs together is disclosed. The apparatus comprises a rotatable bonding roll which is located adjacent the substrate webs and configured to rotate about a bonding axis. A rotatable anvil roll has an anvil surface and is configured to rotate about an anvil axis to press the substrate webs against an outer peripheral bonding surface of the bonding roll thereby bonding the substrate webs together. The anvil roll is pivotally connected to a pivotal support mechanism which is configured to maintain the anvil surface in a substantially parallel relationship with the bonding surface. The pivotal support mechanism is configured to allow the anvil roll to pivot such that the anvil roll maintains a substantially constant force on the bonding surface of the bonding roll across the width of the anvil roll.

Abstract: An ultrasonic rotary horn intended to be excited at a frequency of from about 18 to about 60 kHz, which horn is a shaped, solid metal object having a rotational axis and a radial surface terminated by a first end and a second end. The diameter of the horn can vary from about 4 cm to about 19 cm. The width of the horn at the radial surface is in the range of from about 0.6 cm to about 13 cm. The thickness of the horn at its rotational axis is from about 0.6 cm to about 15 cm and is independent of the width of the horn at the radial surface. The horn has a mass in the range of from about 0.06 kg to about 30 kg.