Abstract: A method and apparatus for connecting a plurality of coaxial cables to a printed circuit board in a compact connector. The apparatus is generally comprised of a flexible carrier, means for attaching the cable to the flexible carrier, a conductive base plate and a rigid beam providing pressure such that the electrical contact between the coaxial cable and the printed circuit board is maintained. The method generally comprises the steps of stripping the coaxial cables, bonding the coaxial cable to a flexible carrier, positioning the coaxial cables over traces of a printed circuit board providing pressure such that electrical contact is maintained between the cables and the printed circuit board.

Abstract: A method for connecting a plurality of coaxial cables to a printed circuit board in a compact connector. The method generally comprises the steps of stripping the coaxial cables, bonding the coaxial cable to a flexible carrier, positioning the coaxial cables over traces of a printed circuit board providing pressure such that electrical contact is maintained between the cables and the printed circuit board.

Abstract: A method and apparatus for connecting a plurality of coaxial cables to a printed circuit board in a compact connector. The apparatus is generally comprised of a flexible carrier, means for attaching the cable to the flexible carrier, a conductive base plate and a rigid beam providing pressure such that the electrical contact between the coaxial cable and the printed circuit board is maintained. The method generally comprises the steps of stripping the coaxial cables, bonding the coaxial cable to a flexible carrier, positioning the coaxial cables over traces of a printed circuit board providing pressure such that electrical contact is maintained between the cables and the printed circuit board.

Abstract: A method and apparatus for connecting a plurality of coaxial cables to a printed circuit board in a compact connector. The apparatus is generally comprised of a flexible carrier, means for attaching the cable to the flexible carrier, a conductive base plate and a rigid beam providing pressure such that the electrical contact between the coaxial cable and the printed circuit board is maintained. The method generally comprises the steps of stripping the coaxial cables, bonding the coaxial cable to a flexible carrier, positioning the coaxial cables over traces of a printed circuit board providing pressure such that electrical contact is maintained between the cables and the printed circuit board.

Abstract: A multiplane transesophageal probe (20) includes a transducer (28) and a handle (30). The handle incorporates a control (40) mounting switches (51-58). The switches and control panel are covered with foil (43). A seal (70) couples the control panel and foil to the handle.

Abstract: An internal imaging probe including an expandable scanhead for improving the positioning of an imaging element mounted on the scanhead. The imaging probe is introduced into the esophagus of a patient via the patient's mouth. Once, the imaging probe is introduced, the imaging probe is positioned to a point where an internal structure of the patient is within the direction of view of an imaging element, such as a transducer, located on the scanhead. Once positioned, the scanhead is expanded either by inflation, or via a moving extensor located within the scanhead. The scanhead is then expanded until the imaging element, such as a transducer, achieves close and uniform contact with the esophageal wall of the patient thereby providing accurate imaging of the internal structure. Further, expanding the scanhead while the scanhead is within the esophagus of the patient minimizes the risks of damage to the esophageal wall that are associated with prior art probes.

Abstract: G.E. DOCKET NUMBER 15-DS-00536A system and method for measuring a position of an imaging element located within a scanhead of an imaging probe, such as transesophageal ultrasound probe, is provided. The imaging probe may be used in a medical imaging system and/or a three-dimensional imaging system. The probe includes an articulating portion having a scanhead. The scanhead includes an imaging element, such as a transducer, and a position sensor positioned within the scanhead. Preferably, the position sensor is connected to the imaging element via an axle. Therefore, the rotation of the position sensor is synchronized to the rotation of the imaging element. The location of the position sensor within the imaging element provides accurate measurement of the position of the imaging element. The position sensor preferably includes a code disk having apertures and a system of light emitters and detectors.

Abstract: A transesophageal ultrasound probe allowing for scan-plane rotation comprises an endoscope with a probe head connected to the distal end of the endoscope. A transducer is secured to the probe head. A transfer mechanism is connected to the transducer. A motor at the distal end of the endoscope is connected to the transfer mechanism. Finally, an electrical wire is connected to the motor. The transesophageal ultrasound probe uses a motor in the tip of the transesophageal ultrasound probe for scan-plane rotation.

Abstract: A system and method for measuring a position of an imaging element located within a scanhead of an imaging probe, such as transesophageal ultrasound probe, is provided. The imaging probe may be used in a medical imaging system and/or a three-dimensional imaging system. The probe includes an articulating portion having a scanhead. The scanhead includes an imaging element, such as a transducer, and a position sensor positioned within the scanhead. Preferably, the position sensor is connected to the imaging element via an axle. Therefore, the rotation of the position sensor is synchronized to the rotation of the imaging element. The location of the position sensor within the imaging element provides accurate measurement of the position of the imaging element. The position sensor preferably includes a code disk having apertures and a system of light emitters and detectors.

Abstract: A multiplane transesophageal probe (20) includes a transducer (28) and a handle (30). The handle incorporates a control (40) mounting switches (51-58). The switches and control panel are covered with foil (43). A seal (70) couples the control panel and foil to the handle.

Abstract: An internal imaging probe including an expandable scanhead for improving the positioning of an imaging element mounted on the scanhead. The imaging probe is introduced into the esophagus of a patient via the patient's mouth. Once, the imaging probe is introduced, the imaging probe is positioned to a point where an internal structure of the patient is within the direction of view of an imaging element, such as a transducer, located on the scanhead. Once positioned, the scanhead is expanded either by inflation, or via a moving extensor located within the scanhead. The scanhead is then expanded until the imaging element, such as a transducer, achieves close and uniform contact with the esophageal wall of the patient thereby providing accurate imaging of the internal structure. Further, expanding the scanhead while the scanhead is within the esophagus of the patient minimizes the risks of damage to the esophageal wall that are associated with prior art probes.