Abstract: A medical imaging apparatus is designed to acquire medical imaging data of a patient during a medical imaging examination and has a medical data acquisition scanner, which has a patient reception area at least partially enclosed by the scanner, inside of which a body area of a patient for examination is situated during the medical imaging examination. A positioning unit has a projector and at least one positioning surface situated inside the patient reception area. The projector is designed to project at least one item of anatomical information onto the at least one positioning surface inside the patient reception area.

Abstract: Exemplary embodiments provide systems and methods for portable medical ultrasound imaging. Certain embodiments provide a multi-chip module for an ultrasound engine of a portable medical ultrasound imaging system, in which a transmit/receive chip, an amplifier chip and a beamformer chip are assembled in a vertically stacked configuration. Exemplary embodiments also provide an ultrasound engine circuit board including one or more multi-chip modules, and a portable medical ultrasound imaging system including an ultrasound engine circuit board with one or more multi-chip modules. Exemplary embodiments also provide methods for fabricating and assembling multi-chip modules as taught herein. A single circuit board of an ultrasound engine with one or more multi-chip modules may include 16 to 128 channels in some embodiments. Due to the vertical stacking arrangement of the multi-chip modules, a 128-channel ultrasound engine circuit board can be assembled within exemplary planar dimensions of about 10 cm×about 10 cm.

Abstract: Provided is an apparatus, a system and method for use in image guided medical instrument manipulation. Embodiments describe various apparatuses having a mount operable to receive an imaging probe, a body guide and a medical instrument guide. There are also described methods and a systems for using the various apparatuses to position the apparatus and collect data relating to the position of the medical instrument relative to a target within a patient's body. Further methods include using the apparatus and system in epidural anaesthetic procedure or lumbar puncture. The apparatus may include a hand-held ultrasound probe, configured to acquire a volumetric dataset representing a 3-D depiction of a volume, which may include information about a medical instrument's position relative to the target in three dimensions.

Abstract: Embodiments described herein include apparatus that includes an electrical interface and a processor. The processor is configured to receive, via the electrical interface, a first signal that indicates a time-varying force that was applied to a portion of tissue, and one or more second signals that are derived from ultrasound reflections received from the portion of tissue. The processor is further configured to learn, from the first signal and the second signals, a dependency of a thickness of the portion of tissue on the force applied to the portion of tissue. Other embodiments are also described.

Abstract: A medical device includes a treatment module configured to apply a treatment to a patient. The medical device includes an interface configured to operatively connect to a removable storage device storing authorization data that identifies a level of treatment authorization. The medical device includes a processing device configured to perform operations in response to receiving user input indicating a treatment should be initiated. The operations include determining whether the removable storage device is valid for use with the medical device. If the removable storage device is determined to be valid, the authorization data is accessed. The processing device determines whether the treatment is authorized based on the accessed authorization data. If the treatment is determined to be authorized, the treatment module is controlled to apply the treatment. If the treatment is determined to not be authorized, the treatment module is controlled such that the treatment is not applied.

Abstract: Viscoelastic characteristics in a subject are imaged by a simple method. A viscoelasticity measurement reference layer whose elastic modulus and viscosity coefficient are known is included between an ultrasonic wave transmitting/receiving probe and the subject and distributions of elastic modulus and viscosity coefficient inside the subject are calculated from a change over time of strain generated in the viscoelasticity measurement reference layer and the subject according to a pressure applied to the subject which changes over time and known elastic modulus and viscosity coefficient of the viscoelasticity measurement reference layer.

Abstract: The present disclosure provides a system for delivery of therapeutic energy. The system includes an energy unit configured to convert the acoustic energy signals transmitted to therapeutic ultrasound directed to fragment tumors and carcinogenic tissue in the body. The system also includes an energy unit configured to convert the acoustic energy signal transmitted from the energy unit to ultrasonic energy to image and monitor the treatment site with ultrasound. The system also includes a control unit including a computer for data storage and display.

Abstract: A method of calibrating a PAI system (401-413) is described. The method includes a signal processing unit (404) determining optical fluence at voxels within arteries of a human or animal, and interpolating from these measurements to provide a fluence map with a fluence value for all voxels of interest. The system (404) stores the fluence map for subsequent use in making PAI measurements. The arterial optical fluence may be determined on the basis that the arterial oxygen saturation (SaO2) is the same throughout the arterial part of the circulation system.

Abstract: For liver modeling from medical scan data, multiple modalities of imaging are used. By using multiple modalities of imaging in combination with generative modeling, a more comprehensive and informed assessment may be performed. The generative modeling may allow feedback of effects of proposed therapy on function of the liver. This feedback is used to update the liver function information based on the imaging. Based on the computerized modeling with information from various imaging modes, an output based on more comprehensive information and patient personalized modeling and feedback may be provided to assist the physician.

Abstract: A hand-held system for ultrasound monitoring of internal organs of humans and animals and providing therapy combined with ultrasound is presented. The system comprises a base that functions as a docking station for the smart device. The base comprises ultrasound transducer elements, which are essentially integral with additional electronics, located on its bottom side and a socket into which the smart device can be inserted on its top side. The socket is provided with connecting elements suitable to mechanically and electrically connect the smart device to the base and to allow the base and the smart device to be moved as a single unit.

Abstract: The present disclosure discloses a system and method for ultrasonic imaging. The method includes receiving a user-defined control gesture and associating the control gesture with a function selected by a user; forming a control gesture signal and function association database; when the ultrasonic imaging system is in normal operation, receiving a current control gesture signal and matching the current control gesture with a control gesture in the database to determine a function associated with the matched control gesture; and controlling the ultrasonic imaging system to perform the associated function. According to the present disclosure, it is very convenient for users to define customized control gestures according to their personal operation routines and habits.

Abstract: A virtual tracking system for a virtual medical device. The virtual medical device may include a tangible proximal portion that at least temporarily has a magnetic element attached thereto. The system includes a tracking circuit configured to track movement of the virtual medical device and a display. The tracking circuit may include at least one reception component configured to detect a magnetic field of the magnetic element and to generate magnetic field strength data. The tracking circuit may also include a processor that iteratively computes position data of a virtual distal portion of the virtual medical device according to the magnetic field strength data so as to simulate insertion of the virtual distal portion of the virtual medical device into a body of a patient. The display may be configured to depict an image of the computed position data of the virtual distal portion of the virtual medical device.

Abstract: Intravascular devices, systems, and methods are disclosed. In some embodiments, the intravascular devices include at least one electronic, optical, or electro-optical component positioned within a distal portion of the device and one or more connectors positioned at a distal portion of the device. In some instances, the connectors are flexible coils, such as a ribbon coil, formed of a conductive material. In some particular instances, the conductive coil is embedded within a polymer tubing. Further, in some embodiments the electronic, optical, or electro-optical component is positioned within a flexible element at the distal portion of the device. In some instances the flexible element is a coil. Methods of making and/or assembling such intravascular devices/systems are also provided.

Abstract: An acoustic matching member configured to be disposed between a breast placed on an imaging table and a compression plate disposed opposite to the imaging table is proposed. The acoustic matching member includes a protruding portion that protrudes toward the imaging table and that is provided in an end portion on a deepest side when viewed from a chest wall side of a subject in a case of compressing a breast of the subject in contact with the compression plate.

Abstract: A system and method for reconstructing a series of images of a subject includes acquiring medical image data from the subject with a medical imaging system and reconstructing a series of images of the subject from the acquired medical image data set. The reconstructing includes enforcing general adherence to a non-patient-specific signal model that describes a dependency of image intensity values on at least one variable that is associated with a physical or physiological property by constraining reconstruction of individual images in the series of images using the non-patient-specific model. The reconstructing also includes preserving information in the series of images that deviate from the non-patient-specific model by controlling a requirement of consistency with the non-patient-specific model.

Abstract: An apparatus for performing an endovascular procedure using ultrasonic energy includes a catheter with a proximal end portion and a distal end portion. The distal end portion includes a first window, which may expose a wave guide for delivering the ultrasonic energy for performing the endovascular procedure. A cover may be provided for selectively covering the window. By selectively controlling the position of the sheath, the transmission of ultrasonic energy may be regulated accordingly for providing a desired treatment regimen.

Abstract: According to one embodiment, an ultrasound diagnosis apparatus transmits ultrasound waves to a subject from a plurality of transducers each corresponding to one of a plurality of channels, and receives reflected waves generated in the subject by the transducers. The ultrasound diagnosis apparatus includes a control circuit and a receiving circuit. The control circuit controls channels used to transmit ultrasound waves and channels not used to transmit ultrasound waves among the channels. The receiving circuit receives the reflected waves, and includes a preamplifier and an impedance control circuit. The preamplifier amplifies the reflected waves. The impedance control circuit is located on the upstream side of the preamplifier, and sets line impedance in a transmitting period, in which the ultrasound waves are transmitted from the transducers to the inside of the subject, to be lower than that in a receiving period, in which the reflected waves are received by the transducers.

Abstract: An ultrasonic probe includes a connection layer including a conductor array for connecting a transducer array and a printed circuit board (PCB) to an application specific integrated circuit (ASIC). The ultrasonic probe includes a transducer array which transmits and receives an ultrasonic wave, a first electronic circuit electrically connected to the transducer array, a second electronic circuit electrically connected to the first electronic circuit, and a connection layer disposed between the transducer array and the first electronic circuit and including a first conductor array in contact with the transducer array so that the transducer array is electrically connected to the first electronic circuit and a second conductor array in contact with the second electronic circuit so that the second electronic circuit is electrically connected to the first electronic circuit.

Abstract: A surgical vision system for imaging heat capacity and cooling rate of tissue has an infrared source configured to provide infrared light to tissue, the infrared light sufficient to heat tissue, and an infrared camera configured to provide images of tissue at infrared wavelengths. The system also has an image processing system configured to determine, from the infrared images of tissue, a cooling or heating rate at pixels of the images of tissue at infrared wavelengths and to display images derived from the cooling rate at the pixels.

Abstract: Line artifact reduction is provided in multi-beam scanning for Doppler imaging. An analytic solution uses estimated velocities for collocated receive scan lines from different transmit beams to reduce or remove the biases caused by multi-beam receive. For each location, a line or curve is fit to the estimated velocities as a function of distance of the transmit scan lines to the location. The velocity at an intercept of this line with the distance of zero (intercept with the origin) indicates the unbiased velocity. This approach allows a solution even where all of the velocity estimates have a bias with the same sign, such as due to the location being on a same side of the different transmit scan lines.