Abstract:
A method for manipulating a remote device with a hand-held device having one or more first sensors to detect angular orientation of the device in one or more planes, and at least one two-dimensional surface device having one or more second sensors to detect translational position of the hand-held device in one or more directions, which communicates the angular orientation data from the hand-held device and the translational position data from the at least one surface device to the remote device, and positions the remote device based on the angular orientation data from the hand-held device and the translational position data from the at least one surface device.
Abstract:
A hand-held ultrasound system includes integrated electronics within an ergonomic housing. The electronics includes control circuitry, beamforming and circuitry transducer drive circuitry. The electronics communicate with a host computer using an industry standard high speed serial bus. The ultrasonic imaging system is operable on a standard, commercially available, user computing device without specific hardware modifications, and is adapted to interface with an external application without modification to the ultrasonic imaging system to allow a user to gather ultrasonic data on a standard user computing device such as a PC, and employ the data so gathered via an independent external application without requiring a custom system, expensive hardware modifications, or system rebuilds. An integrated interface program allows such ultrasonic data to be invoked by a variety of such external applications having access to the integrated interface program via a standard, predetermined platform such as visual basic or c++.
Abstract:
A remote ultrasound assessment and intervention system comprises a console having a controller for an ultrasound imaging device attachable to a human skin surface or implantable in a human body cavity. Commands from a remote work station located, for example, at a hospital may remotely control a transducer of the device to move in x, y, z, rotate and tilt directions to remotely assess an injury to a victim, for example, of a war zone injury or terrorist attack. A first responder, who need not be medically trained, may be instructed via a communications link or via a predetermined controller program stored in computer memory to move the imaging device from one location to another on the human skin surface or in a human body cavity. Intervention is also remotely controlled, once an injury is assessed and diagnosed from the hospital work station via an image guided catheter manipulated by the first responder via commands received from the hospital work station.
Abstract:
A probe device, a server, a system for diagnosing an ultrasound image, and a method of processing an ultrasound image. The system includes: a probe device for transmitting an echo signal received from a transducer to a server; a server for executing an ultrasound image diagnostic application. Ultrasound image data is generated by using the echo signal received from the probe device; and an electronic device including a display unit for receiving and displaying the ultrasound image data generated by the ultrasound image diagnostic application of the server.
Abstract:
An interventional medical device that incorporates an imaging system may be minimally invasive and equipped with an anchoring portion at a proximal end for securing the device to a human body. A luer lock may be utilized at the proximal end, for example, for introducing a syringe. The medical device can be in the form of sheaths, catheters, and interventional devices, particularly those suitable for minimally invasive procedures in the pericardium. The imaging system comprises one or more ultrasound transducers and can be used to guide the device to a target area and to perform a procedure and/or provide access to a target area for performing a procedure via a plurality of lumen. In one embodiment, a micro-electro-mechanical system may be utilized to monitor pressure within a human body.
Abstract:
According to one embodiment, a medical image diagnostic apparatus includes a user operation input unit, operation information generation unit, and display unit. The user operation input unit accepts user operations for medical examinations. The operation information generation unit generates identification information of the input user operation in real time in response to the user operation input to the user operation input unit. The display unit displays the generated identification information and an information input column for the user operation on a screen image in real time.
Abstract:
Methods and systems for determining information about a vascular bodily lumen are described. An exemplary method includes generating an electrical signal, delivering the electrical signal to a plurality of excitation elements in the vicinity of the vascular bodily lumen, measuring a responsive electrical signal from a plurality of sensing elements in response to the delivered electrical signal, and determining a lumen dimension. Specific embodiments include generating a multiple frequency electrical signal. Another embodiment includes measuring plurality of responsive signals at a plurality of frequencies. Still other embodiments include using spatial diversity of the excitation elements. Yet other embodiments use method for calibration and de-embedding of such measurements to determine the lumen dimensions. Diagnostic devices incorporating the method are also disclosed, including guide wires, catheters and implants. The methods and systems described herein are advantageous as they do not include injecting a second fluid for the measurements.
Abstract:
A remotely manipulatable ultrasound transducer element or transducer array permits an operator of an ultrasound system to be remotely located from a patient and yet remotely control the location of the element or array on a patient's body such as on the skin surface or within a body cavity. The transducer element or transducer array associated with motors and control circuits comprises an assembly within a housing for fixation to or within a human body. The transducer assembly may be fixed to a ring surrounding an image guided catheter and may rotate about the image guided catheter or move along its length to an anchoring position proximate the surface skin. Two embodiment systems for pericardial access may comprise surface and internal vision or ultrasound guidance systems that are wireless or wired one operating on suction and another on mechanical grasping of the pericardial lining.
Abstract:
An ultrasonic transducer assembly (12, 42) for diagnostic imaging is provided. The ultrasonic transducer assembly (12, 42) includes a housing (24, 54), a plurality of image data acquisition transducer arrays (30, 32, 60, 62), a transducer controller assembly (36, 66), selection means (34, 64) for indicating a selected one of the plurality of ultrasonic image data acquisition transducer arrays (30, 32, 60, 62) to the transducer controller assembly (36, 66), and a communications assembly (16, 70) for sending ultrasound image data and for receiving transmit waveforms and/or control data. The ultrasonic transducer assembly (12, 42) could also include a multiplexer assembly (38) and/or a microbeamformer assembly (68). The ultrasonic image data acquisition transducer arrays (30, 32, 60, 62) could be of different types, have different operating characteristics, and/or have different modes of operation.
Abstract:
A physiology workstation includes a communications interface conveying physiology signals and ultrasound data representative of a region of interest. The ultrasound data is obtained by an ultrasound device in real-time during a procedure. Also includes is a physiology processing unit, an ultrasound processing unit, and a display unit displaying the physiology signals and the ultrasound images, the physiology signals and ultrasound signals being presented jointly to a user in real-time during the procedure being carried out on the subject. The display unit includes at least one monitor co-displaying the physiology signals and ultrasound images in adjacent windows on a single display. The physiology processing unit, ultrasound processing unit and display unit are located in a control room divided from a procedure room. The communications interface extends between the procedure and control rooms and the physiology processing unit is configured to remotely control the ultrasound system via the communications interface.