Koninklijke Philips Corporation N.V.

Jeanne Cheng

Zsolt Mark

Patrick G Rafter

Robert L Burnham

Abhay Vijay Patil

Michael Peszynski

A medical imaging system configured to provide cardiac sonothrombolysis therapy is disclosed. Various embodiments of portable cardiac sonothrombolysis devices are disclosed. The devices may be configured to determine if one or more ultrasound probes have a proper view of the heart, and if not, may steer the beam to a desired location. The ultrasound probes may be configured for both imaging and cardiac sonothrombolysis therapy. The ultrasound probes may be configured to be hands-free. The portable devices may be configured to provide operating instructions to an operator. The instructions may be provided via graphics, audio, and/or video.

Ultrasound device for sonothrombolysis therapy

The insertion of a needle or other surgical instrument into the body is guided by three dimensional ultrasonic imaging. A probe having a two dimensional array transducer is placed against the body and manipulated to acquire an image of the site of the surgical procedure inside the body. The clinician inserts the surgical instrument, trying to follow an insertion path which is in the plane of a single image produced by the ultrasound system. The clinician observes the path of insertion and insertion progress on a display of a plurality of real-time 2D ultrasound images of spatially adjacent planes of a volume including the surgical procedure site. If the insertion path of the instrument does not remain in the plane of a single image, portions of the instrument will appear in the images of multiple adjacent image planes when the instrument intersects a succession of image planes as it progresses toward the site of the surgical procedure.

Method for guiding the insertion of a surgical instrument with three dimensional ultrasonic imaging

An ultrasound system has a control panel formed of a top glass plate with control area graphics screened onto the bottom surface of the glass plate. Capacitive foils are attached to the areas of the screened graphics, enabling a user control to be capacitively selected by touching the top surface above the screened graphics. Each control area is selectively back-illuminated by a diffuser frame with light pipes fastened below the glass plate. LEDs for illumination are mounted on a printed circuit board fastened to the diffuser frame, which are controlled by the printed circuit board. Different groups of user controls are illuminated in accordance with the context of the operating mode or imaging procedure being performed so that only needed control are illuminated while unneeded controls are invisible to the user. All of the controls can be extinguished and de-activated so that the top surface of the control panel can be cleaned without randomly activating the controls of the control panel.

Ultrasonic diagnostic imaging system with contextually variable control panel

An ultrasound system has a control panel formed of a top glass plate with control area graphics screened onto the bottom surface of the glass plate. Capacitive foils are attached to the are of the screened graphics, enabling a user control to be capacitively selected by touching the top surface above the screened graphics. Each control area is selectively back-illuminated by a diffuser frame with light pipes fastened below the glass plate. LEDs for illumination are mounted on a printed circuit board fastened to the diffuser frame, which are controlled by the printed circuit board. Different groups of user controls are illuminated in accordance with the context of the operating mode or imaging procedure being performed so that only needed control are illuminated while unneeded controls are invisible to the user. All of the controls can be extinguished and de-activated so that the top surface of the control panel can be cleaned without randomly activating the controls of the control panel.

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Andover, MA, United States of America

Jeanne Cheng