Abstract: An ultrasonic welding assembly joins bare ends of an insulated wire bundle to a wire terminal in a weldment zone by intimate contact with a sonotrode of an ultrasonic stack. A door allows the operator to place the terminal into the nest within the weldment zone. One operator hand holds the wire bundle while one contacts an external sensor. A pair of terminal clamps extend inwardly and down to secure the terminal and create a taller capture area for the loose bare wire ends. A pair of clamp finger assemblies reversibly extend towards the insulated wires away from the weldment zone for securing the wires. A wire gatherer descends upon and captures all of the wire bare ends and secures them until the horn descends, captures, and holds the wire ends in place, then extends away from the weldment zone for ultrasonic welding to commence.

Abstract: Embodiments of the invention are directed to substrate processing apparatuses and methods for processing substrates. In one embodiment, a substrate processing apparatus includes a processing chamber, a substrate holder inside of the processing chamber for holding a substrate, and a sonic box in the processing chamber for supplying sonic waves substantially perpendicularly to the substrate. The sonic box may comprises a membrane, and a transducer coupled to the membrane.

Abstract: Embodiments of the invention are directed to substrate processing apparatuses and methods for processing substrates. In one embodiment, a substrate processing apparatus includes a processing chamber, a substrate holder inside of the processing chamber for holding a substrate, and a sonic box in the processing chamber for supplying sonic waves substantially perpendicularly to the substrate. The sonic box may comprises a membrane, and a transducer coupled to the membrane.

Abstract: Embodiments of the invention are directed to substrate processing apparatuses and methods for processing substrates. In one embodiment, a substrate processing apparatus includes a processing chamber, a substrate holder inside of the processing chamber for holding a substrate, and a sonic box in the processing chamber for supplying sonic waves substantially perpendicularly to the substrate. The sonic box may comprises a membrane, and a transducer coupled to the membrane.

Abstract: A portable fish finder device with a housing that defines a wrap cavity for receiving a signal cable that communicates between a depth finder device and a transducer attached to the water craft. A skirt connected to the housing moves between a first position covering the wrap cavity and a second position uncovering the cavity for winding or unwinding the signal cable. The depth finder device pivotally mounts to the housing to move between a storage position with a display screen received in a recess of the housing and an extended position for viewing the display. The cable winds into the wrap cavity for storage and unwinds when the housing is disposed on a portion of a water craft for use of the depth finder with the transducer communicating signals in a body of water for detecting underwater articles.

Abstract: A buoy to shore fish finding system has a buoyant station with a sonar transmitter, a sonar receiver, a sonar to electric signal transducer and a radio transmitter all controlled by a microprocessor. The system shore station has a radio receiver and signal display controlled by a shore station microprocessor. The buoyant station microprocessor is programmed to generate sync pulses and to transmit both the sync pulses and transduced sonar echo returns to the shore station while the shore station microprocessor is programmed to display only echo signals received after a sync pulse. The shore station is detachably secured to the arm of the fisherman or to his fishing rod.

Abstract: Embodiments of the invention are directed to substrate processing apparatuses and methods for processing substrates. In one embodiment, a substrate processing apparatus includes a processing chamber, a substrate holder inside of the processing chamber for holding a substrate, and a sonic box in the processing chamber for supplying sonic waves substantially perpendicularly to the substrate. The sonic box may comprises a membrane, and a transducer coupled to the membrane.

Abstract: A buoy to shore fish finding system has a buoyant station having a sonar transmitter, a sonar receiver, a sonar to electric signal transducer and a radio transmitter all controlled by a microprocessor. A shore station has a radio receiver and signal display controlled by a shore station microprocessor. The buoyant station microprocessor is programmed to generate sync pulses and to transmit both the sync pulses and tranduced sonar echo returns to the shore station while the shore station microprocessor is programmed to display only echo signals received after a sync pulse.

Abstract: A fishing system buoy has a watertight bulbous shell housing an electronic load and with a center of mass located within a lower half of the shell. The load includes sonar operatively coupled via a microprocessor with a radio transmitter that has an upright antenna located in an upper half of the shell. The shell has a keel with an eyelet for tethering a fishing line to the shell. The buoy functions both as a fishing bobber and communications relay station for obtaining and transmitting images of fish swimming beneath the bobber.

Abstract: A fishfinder device (10) with an integrated controller (11) for simplified operation, in which a control switch (20) causes a display (14) to present in a looping sequence an identifier (64) associated with each of a plurality of operational features (74) for selecting operational features to enable, disable or modify by operating a selection button (22, 24) during presentation of the identifier associated with the operational feature, the fishfinder device (10) including a transducer (62) for periodically transmitting an acoustic wave beam (63) and for receiving return signals of the acoustic wave beam reflected from detected underwater articles (65) and a display (14) for displaying images representative of the detected underwater articles (65, 67, 69) based on the return signals from the transmissions of acoustic wave beams, while the controller (18) provides the plurality of operational features (74) for the fishfinder device (10). A method of operating the fishfinder device (10) is disclosed.

Abstract: An apparatus and method for scanning a body of water for fish and other underwater articles with a sonar depth finder of a type having a transducer that can transmit an acoustic wave and receive sonar returns on both a narrow acoustic wave beam mode and on a wide acoustic wave beam mode, in which the sonar depth finder repetitively determines the approximate depth of the body of water by repetitively transmitting in the wide beam mode and receiving and displaying the sonar returns from each transmission initially in the wide beam mode and then in the narrow beam mode, with the duration of receiving in the narrow acoustic wave beam mode being a function of the determined depth from a prior transmission.

Abstract: A cable bundle connector for simultaneously attaching or detaching a plurality of cables having cable connectors and wires extending therefrom to operational devices, comprising a housing body with two pairs of opposing sides that defame an interior cavity for receiving a plurality of cables for being connected to an operational device. A cable receiver defines a plurality of sleeves, each configured for receiving a cable connector of one of the plurality of cables. One side defines a slot through which a portion of the cable passes into the connector. Fasteners secure the cable receiver to an open end of the housing. The cable connectors being received in the sleeves with the wires extending outwardly of the housing body are readily connected simultaneously to an operational device.

Abstract: An underwater video camera housing body includes a hollow interior for positioning a camera therein. The front end of the body is configured to receive a transparent member in a watertight relationship thereto. A weight is positioned in the interior of the housing body which is sufficient to overcome the buoyancy of the water, so that the housing can readily sink in water. An opening in the body communicates with the interior of the body. A plug member is inserted into the opening, the plug member containing therein strain-relieving means for the video cable. The plug is filled with a potting material to waterproof the entry of the cable into the housing.

Abstract: A piezoelectric rotating motor includes a plurality of piezoelectric elements, a disk-shaped stator having a center portion in which the piezoelectric elements are accommodated, a circular friction zone which is formed on an outer peripheral portion of its one surface and a connecting portion which connects the center portion with the friction zone so as to form a lever transmitting and amplifying the axial strain of the piezoelectric elements to the portion of the friction zone located in the same angular sector as the piezoelectric elements and which has a cone shape at rear side of the friction zone so as to thin its thickness from the center portion to the outer peripheral portion and producing a progressive wave forming an elliptical vibration on the friction zone by the composition of its three dimensional strain due to the piezoelective effect of the piezoelectric elements and a rotor being contracted with the friction zone under pressure.

Abstract: A distribution network of electric signals in a piezoelectric or ultrasonic waves motor, is produced by depositing electrodes of conductive material on one face of a strip in dielectric material, that on the other face of the strip conductive tracks are deposited according to an interconnection diagram, designed beforehand to supply the piezoelectric elements with proper voltage. Drillings are made through the strip between the conductive tracks and the electrodes, and through plating or deposit of conducting material, these drillings are made conductive.