A RF coil compression system for use with an MRI system configured to image a patient's breast is disclosed. In one embodiment, the compression system comprises a first compression plate comprising a first plurality of RF coil elements, which is positioned in a plane oriented orthogonal to a direction of the main magnetic field and the first RF coil elements having a reception sensitivity to a B1 field and is orthogonal to a main magnetic field of the MRI system. The compresses system may further comprise a second compression plate, configured to be positioned opposing the first compression plate and orthogonal to the superior-inferior direction, the second compression plate comprising a second plurality of RF coil elements, the second RF coil elements having a reception sensitivity to a B1 field oriented in a direction substantially orthogonal to the first direction and to the main magnetic field of the MRI system.

Systems and methods are provided for imaging a sample. The system may include a pulsed light source configured to irradiate a region of interest in a sample from a first side and a second side opposite the first side; a first ultrasound transducer configured to receive acoustic waves induced at the region of interest and received from the first side of the sample; a second ultrasound transducer configured to receive acoustic waves induced at the region of interest and received from the second side of the sample; and a controller.

A subject information acquisition apparatus includes a light irradiation unit configured to irradiate a subject with light, a probe configured to detect an acoustic wave generated in the subject due to the irradiation of the light, a moving unit configured to change a relative position between the probe and the subject, and a control unit configured to control the moving unit to move the probe so that the probe makes a movement along a path a plurality of times. The moving unit is controlled so that the relative position of the probe with respect to the subject when the subject is irradiated with the light during a first movement along the path differs from the relative position of the probe with respect to the subject when the subject is irradiated with the light during a second movement along the path successively performed after the first movement along the path.

In one aspect, a device for measuring breast volume is disclosed, which comprises a housing comprising an enclosure having an opening, a flexible membrane sealingly covering said opening so as to provide an enclosed space within said enclosure, a gas disposed within said enclosed space, and at least one pressure sensor coupled to said enclosure so as to measure pressure of said gas within said enclosed space. The flexible membrane is configured to reversibly flex into said enclosed space in response to pressure of a breast against the membrane. The flexure of the membrane causes a change in the pressure and volume of the gas within said enclosed space.

Provided herein are the systems, methods, components for a three-dimensional tomography system. The system is a dual-modality imaging system that incorporates a laser ultrasonic system and a laser optoacoustic system. The dual-modality imaging system generates tomographic images of a volume of interest in a subject body based on speed of sound, ultrasound attenuation and/or ultrasound backscattering and for generating optoacoustic tomographic images of distribution of the optical absorption coefficient in the subject body based on absorbed optical energy density or various quantitative parameters derivable therefrom. Also provided is a method for increasing contrast, resolution and accuracy of quantitative information obtained within a subject utilizing the dual-modality imaging system. The method comprises producing an image of an outline boundary of a volume of interest and generating spatially or temporally coregistered images based on speed of sound and/or ultrasonic attenuation and on absorbed optical energy within the outlined volume.

A biophotonic medical device for detection of abnormalities in human tissue. A method for noninvasive detection of a failed breast implant. A method for medical diagnosis of abnormalities in human tissue by adjusting the positioning of a light source and an adjacent light detector on a single surface of a target region.

An imaging system and a device for breast cancer detection are disclosed. The device includes a plurality of antennas arranged to form a polyhedral cup shape against which the breast is pressed. The antennas are mounted flat circuit boards which comprise the antennas and RF transceiver RFICs and are configured to hinge together to form a multichip module. The polyhedral shape allows antennas to be in direct contact with the breast skin without any intermediate medium. This enables dielectric constant of antennas matched with that of the breast skin or tissues thereby reducing reflections from skin-fat boundary.

Disclosed embodiments provide an apparatus and method for imaging breast tissue of a subject, wherein a subject is positioned on a structure so that at least a portion of the subject's body is supported by the structure, magnetic resonance imaging is performed on the portion of the subject's body using an MRI system including a plurality of MRI coils positioned in proximity to the structure, wherein, while the portion of the subject's body is positioned upon the structure, breast tissue of the subject's body is compressed in the proximity of plurality of MRI coils.

An image processing device including: at least one processor, wherein the processor is configured to select an image used to guide positioning of a breast to be imaged by a mammography apparatus, which irradiates the breast compressed by a compression member with radiation to capture a radiographic image, from a plurality of images of the breast on the basis of imaging information related to a capture of the plurality of images, generate a projection image for guiding the positioning of the breast to be imaged from the selected image, and control the mammography apparatus such that an image projection unit projects the generated projection image for guidance.

A breast biopsy lateral arm system includes a removable gun mount which attaches to a carriage that traverses along an X-axis defined by a lateral arm in order to position a biopsy needle relative to a patient. The carriage rides along the lateral arm on self-adjusting rollers which are loaded against the lateral arm by spring members. A cam-actuated carriage slide lock can be used to secure the carriage in a desired position relative to the lateral arm. A cam-actuated removable gun mount lock allows the gun mount to be quickly changed and offset orthogonally with respect to the X-axis. An X-axis stop can be used to establish a position to which the carriage can be returned with accuracy.