Abstract: A magnetic resonance imaging apparatus which applies RF pulses to a subject placed on a top board which is moving in an imaging field in which a static magnetic field and gradient magnetic fields are formed, acquiring magnetic resonance signals emitted from the subject as a result of application of the RF pulses, producing image data based on the acquired magnetic resonance signals, and stopping the generation of a drive signal to move the top board during a magnetic resonance signal acquisition interval.

Abstract: A magnetic resonance apparatus has a basic field magnet that generates a basic magnetic field with a homogeneity region of the basic magnetic field in which the basic magnetic field is homogeneous and with a maximum real measurement volume contained in the homogeneity region. The apparatus has a movable patient bed and a control unit that controls the movable patient bed. The maximum measurement volume thereby exhibits a cylindrical shape. A virtual total measurement volume that is greater than the maximum real cylindrical measurement volume can be generated by the control unit together with the movable patient bed.

Abstract: A patient table includes a cradle for slidably receiving a board carrying a patient, a cradle supporting member for slidably receiving the cradle, a locker for preventing the board from sliding off the cradle, and a stopper for preventing the cradle from sliding off the cradle supporting member. A method of transferring a patient to an imaging system from a second table uses the patient table to move the board from the second table to the patient table to the imaging system. An RF coil system usable with the table includes a coil, a coil cable, an intermediate box for receiving the coil cable, and a system cable extending from the intermediate box and connected to the imaging system.

Abstract: An isolation system with imaging or radiation therapy capability is disclosed. At least one containment barrier (14, 15, 16, 17) defines an isolation region (10). An imaging or therapy system (20) is disposed outside of the isolation region. The containment barrier includes a substantially hollow tubular extension (24, 42, 44, 124, 224, 324) protruding away from the isolation region (10). The substantially hollow tubular extension surrounds an interior volume (26) that is in fluid communication with the isolation region and is in fluid isolation from the imaging or therapy system. The substantially hollow tubular extension is made at least partially of a material providing operative communication between the imaging or therapy system and the interior volume of the substantially hollow tubular extension.

Abstract: A system to aid in ultrasound scanning of breast tissue includes a fabric covering, which is adapted to hold the breast tissue in place during scanning, an ultrasonic coupling agent applied to one of the covering or the breast tissue, and a lenticular-shaped pad to cover the nipple of the breast tissue. The pad is placed beneath and held in place by the fabric covering, and the covering is capable of absorbing the coupling agent and conducting ultrasonic energy with minimal interference.

Abstract: The invention relates to a MRI system and to a method for producing an image with such an system. In order to provide a MR imaging technique with a high efficient MR signal acquisition, which provides a high level of comfort to a patient, a MRI system and method are suggested, where image data from an object are acquired while the object is moving with variable speed relative to the MRI system, and where the image data are combined and an image of the object is reconstructed.

Abstract: A device to install and remove a structural component in and from a medical large device has a guide system that simplifies the difficult handling of the structural component due to the size or the weight of the structural component. The guide system has a first guide rail that can be positioned on a height-adjustable patient bed of the large device, and a guide groove which is arranged on the structural component. Additionally, another second guide rail can be attached to the medical large device, which forms an extension of the first guide rail when the patient bed is correspondingly positioned. With this device the structural component can be easily raised and lowered with the aid of the height-adjustable patient bed, and can easily be slid into and out of the large device when the first and second rails are at the same height.

Abstract: A patient support and software evaluate spinal instability by controlled isocentric rotation of the spine and measurement of rotation among vertebra to detect damaged vertebra having disproportionately large rotations. The patient support comprises a first support, adapted to support the shoulders of a patient, and a second rotatable support adapted to support the hips and legs of the patient.

Abstract: The present invention discloses a magnetic resonance imaging apparatus for scanning a spine, comprising a body coil for emitting signals, a patient table within the body coil and a spine coil for receiving signals, wherein said spine coil is fixed within said body coil and disposed under said patient table. Said patient table is movable within said body coil by slide rails fitted at the two sides thereof, so as to reduce the length of said spine coil. The cross section of said patient table is in an arched shape, and the cross section of said spine coil is in an arched shape which matches that of said patient table.

Abstract: A continuous table motion magnetic resonance imaging system includes a processor (70) for determining values of scan parameters including at least a subject velocity, a field of view length in the direction of the table velocity, and a preparation sequence time. The acquisition includes performing one or more preparatory operations (54) to manipulate image contrast or to update scanning parameters during table motion. A table (16) is provided for continuously moving a supported imaging subject at the determined velocity. A magnetic resonance imaging scanner (10) through which the table continuously moves the subject acquires magnetic resonance imaging data of the imaged subject during the continuous moving using the determined scan parameters. A reconstruction processor (30, 34, 40) reconstructs the acquired data into an image of the field of view.

Abstract: A system is provided for facilitating the imaging of a specimen, such as a laboratory rat, within an imaging machine such as an MRI machine. A sliding, self-centering interconnection is provided between a magnetic positioning and spacing assembly and a specimen positioning and retention assembly. Support and abutment surfaces are provided for facilitating the proper mounting locations of a gradient coil and probe coil within the main magnet coil and for optimally locating a specimen with respect to the main magnet coil and with respect to the gradient and probe coils.

Abstract: A region of a imaging subject (20) to be imaged is longer along a translation axis (36) than an imaging field of view (40). The imaging subject (20) and a radio frequency coil (30) are translated together along the translation axis (36) in an inward direction respective to the scanner (10). The inward translating of the radio frequency coil is stopped at a loaded position (ziS0). Subsequent to the stopping, the imaging subject is further translated in the inward direction while the radio frequency coil remains stationary so that the region of the subject to be imaged translates through a stationary field of view (40) of the stationary radio frequency coil. During the further translating, the region is imaged using the stationary radio frequency coil and the magnetic resonance imaging scanner.

Abstract: To position an imaging subject (16) in an imaging or therapy system (10), the imaging subject (16) is arranged on a linearly translatable tabletop (26) disposed on a movable trolley (30). A position of a region of interest (24) of the imaging subject along the linearly translatable tabletop is selected using an elongated position selector (40, 40?, 40?) that is elongated in a translation direction (z) of the linearly translatable tabletop (26). After the selecting, the movable trolley is docked with the imaging or therapy system (10). After the docking, the tabletop is linearly translated to move the imaging subject to the imaging or therapy system, the amount of linear translating being based on the selected position of a region of interest along the linearly translatable tabletop.

Abstract: An isolation system with imaging or radiation therapy capability is disclosed. At least one containment barrier (14, 15, 16, 17) defines an isolation region (10). An imaging or therapy system (20) is disposed outside of the isolation region. The containment barrier includes a substantially hollow tubular extension (24, 42, 44, 124, 224, 324) protruding away from the isolation region (10). The substantially hollow tubular extension surrounds an interior volume (26) that is in fluid communication with the isolation region and is in fluid isolation from the imaging or therapy system. The substantially hollow tubular extension is made at least partially of a material providing operative communication between the imaging or therapy system and the interior volume of the substantially hollow tubular extension.

Abstract: A magnetic resonance imaging apparatus includes a magnet having a two poles and a wall connecting the poles; the poles delimiting a patient-imaging space; and a table which is slidably connected to one of the two poles between the two poles and which table extends substantially parallel to the two poles; a drive for displacing the table relative to the magnet; a lock for locking the table in a selected position relative to the magnet; a drive for rotating the magnet about the axis; the table connected to the magnet such that the table rotates with the magnet when the magnet rotates about the axis; the magnet and the table being rotatable from a position in which the poles and the table are horizontal to a position in which the table and the poles are vertical.

Abstract: A patient support table for a magnetic resonance system with a magnetic field generation device creating a magnetic field of 7T or more, comprising a table plate able to be moved into and out of the patient chamber of the magnetic resonance system by means of a drive device, characterized in that the drive device features a pneumatic cylinder with a piston which is coupled to the table plate, with the pneumatic cylinder featuring two working areas divided via the piston and able to be supplied separately with a working medium.

Abstract: In a method and a device for positioning a support device of a magnetic resonance apparatus, wherein the magnetic resonance apparatus has a coil device, a patient support device that has a mounting for accommodation of the coil device at a predetermined position, a detector unit is provided for detection of information describing the coil device and a control device controls a drive unit of the support device to move the support device to a determined position in the magnetic resonance apparatus using only information detected by the detector unit.

Abstract: The present invention provides a patient support apparatus for use during a medical procedure. The patient support apparatus is configured to receive and support a body of a patient on a base member. The base member includes a top surface having a plurality of adjustable members, wherein each of the adjustable members is configured to support a different portion the body of the patient. A plurality of actuation mechanisms are operably connected to both the base member and one each of the plurality of adjustable members, such that each of the plurality of adjustable members is separately, selectively positionable with respect to the base member. A control device operably connected to the actuation mechanism to selectively control the position of each of the adjustable members and the corresponding body portions.

Abstract: A seat, a chair, or a combination thereof can be part of or used in conjunction with an MRI system. The seat can be designed to allow for an MRI analysis without requiring insertion of a probe into a cavity of a patient. In one embodiment, the seat and chair can be adapted for use with a cylindrical-type MRI system. The seat and chair may be used with another type of MRI system, such as an open MRI system. The pelvic region or adjacent portion of a patient can be analyzed without the patient having to lie flat.

Abstract: This invention discloses a method and apparatus to deliver medical devices to targeted locations within human tissues using imaging data. The method enables the target location to be obtained from one imaging system, followed by the use of a second imaging system to verify the final position of the device. In particular, the invention discloses a method based on the initial identification of tissue targets using MR imaging, followed by the use of ultrasound imaging to verify and monitor accurate needle positioning. The invention can be used for acquiring biopsy samples to determine the grade and stage of cancer in various tissues including the brain, breast, abdomen, spine, liver, and kidney. The method is also useful for delivery of markers to a specific site to facilitate surgical removal of diseased tissue, or for the targeted delivery of applicators that destroy diseased tissues in-situ.

Abstract: A body compression device for medical imaging of a patient includes a pad that wraps about the patient and is secured about the patient, reshaping adipose tissue of the patient to facilitate the medical imaging. Another body compression device for medical imaging includes dorsal and ventral panels, and elastic side panels affixed to one or both of the dorsal and ventral panels. The dorsal and ventral panels are secured about the patient. A method of reducing total radiation exposure during CT imaging includes an X-ray fiducial device embedded in the ventral panel. A CT pre-scan image of the patient is generated. A medical region of interest of the patient is determined from a position of the device in the CT pre-scan image. Radiation shielding is placed on one or more portions of the patient that are outside the medical region of interest before the CT imaging is performed.

Abstract: A system, apparatus, and method for determining a position of an orthopaedic prosthesis includes a patient support platform, a sensor array coupled to the patient support platform, and a controller electrically coupled to the sensor array. The sensor array is configured to generate data signals in response to an output signal of a signal source(s) coupled to the orthopaedic prosthesis and/or a bone of the patient. The controller is configured to determine a position of the orthopaedic prosthesis and/or the bone of the patient based on the data signals.

Abstract: A method and system for automatically aligning multiple MR volumes in whole-body MR scans is disclosed. The method and system are capable of automatic alignment of leg-volumes in whole-body MR scans that is insensitive to leg movement. In order to align upper and lower MR volumes, an automatic determination may be made that a junction between the upper and lower MR volumes is in a leg region. The lower MR volume is then divided into left and right regions, and each of the left and right regions are independently aligned with the upper MR volume. One of the left and right regions is then adjusted with respect to the other one to compensate for shifting of the legs with respect to each other.

Abstract: Certain embodiments of the present invention relate to a system and method for object and isocenter alignment in an imaging system. The system includes an electromagnetic, an electromagnetic receiver, and an imaging unit for determining an isocenter of an imaging scanner based on information from the electromagnetic receiver. The imaging unit identifies the isocenter based on a plurality of electromagnetic position measurements. The imaging unit identifies a center of an object to be imaged based on information from a second electromagnetic receiver. The imaging unit repositions the object based on the isocenter. In an embodiment, the emitter is located on the object, the first receiver is located on a detector, and the second receiver is located on a tool for identifying a center of the object or a portion of the object.

Abstract: MRA data is acquired from a large region of interest by translating the patient through the bore of the MRI system as a three-dimensional MRA data set are acquired. The pulse sequence is altered during the scan to change the lateral FOVL of the acquired image to better match the size of the region of interest along its length. Patient table movement is controlled to track a bolus of contrast agent as it passes through the region of interest. A seamless image of the entire region of interest is reconstructed after the acquired data is resampled in regions where the lateral FOVL is altered.

Abstract: In one aspect, a restraining assembly for an awake animal within a magnetic resonance imaging (MRI) device is provided and includes a body restrainer having a first part and a second part that hold a body of the awake animal therebetween. The assembly is of a dual coil design in that it has a volume coil for generating an excitation RF signal and an RF surface coil for receiving an RF response from the animal. The assembly further includes components that serve to restrain movements of the animal, thereby eliminating motion artifacts during the MRI procedure.

Abstract: Medical imaging and navigation system including a processor, a medical positioning system (MPS), a two-dimensional imaging system and an inspected organ monitor interface, the MPS including an imaging MPS sensor, the two-dimensional imaging system including an image detector, the processor being coupled to a display unit and to a database, the MPS being coupled to the processor, the imaging MPS sensor being firmly attached to the image detector, the two-dimensional imaging system being coupled to the processor, the image detector being firmly attached to an imaging catheter.

Abstract: Embodiments of the present invention may provide a cradle transferring device, which moves and withdraws a cradle to and from an examination table of an MRI apparatus in a PET-MRI hybrid system. The cradle transferring device includes: a cradle, on which a subject lies; a shuttle table supporting the cradle and moving and withdrawing the cradle to and from the examination table of the MRI apparatus; and a cradle receiving member provided on the examination table of the MRI apparatus. The shuttle table is provided with a transfer member for holding and transferring the cradle and a transfer member driving means for reciprocating the transfer member along the shuttle table. The cradle transferring device is further provided with a cradle locking means, which locks the cradle to the examination table after the cradle is moved to the examination table.

Abstract: A cylindrical MRI system can be configured such that a patient does not have to be in a lying position during analysis. In a particular embodiment, the patient can sit during analysis. The cylindrical MRI system can be oriented such that a central axis is not parallel to the floor, and in one embodiment, is substantially perpendicular to the floor. In one embodiment, the cylindrical MRI system can be configured to allow an object to contact the patient when the patient is within the analyzing region, even when the primary magnet is at field. In another aspect, an MRI system can include a primary magnet and a gradient coil with different types of shapes. In still another aspect, an MRI system can include a gradient coil that includes a combination of portions having different shapes.

Abstract: The present invention provides a patient support apparatus for use during a medical procedure. The patient support apparatus is configured to receive and support a body of a patient on a base member. The base member includes a top surface having a plurality of adjustable members, wherein each of the adjustable members is configured to support a different portion the body of the patient. A plurality of actuation mechanisms are operably connected to both the base member and one each of the plurality of adjustable members, such that each of the plurality of adjustable members is separately, selectively positionable with respect to the base member. A control device operably connected to the actuation mechanism to selectively control the position of each of the adjustable members and the corresponding body portions.

Abstract: A magnetic resonance imaging apparatus has a static field magnet, gradient coils, a gantry including an opening and storing the static field magnet the gradient coils, a bed structure for advancing and retreating a table-top, on which an object can be placed, with respect to the opening, a lower coil formed by a radio frequency coil disposed below the table-top, and a movement control unit configured to control the lower coil to be movable.

Abstract: The present invention is a technique of, and system for, imaging vascular anatomy over distance considerably greater than the maximum practical field of view of a magnetic resonance imaging system while using substantially one contrast agent injection. The technique and system of the present invention acquires image data of a plurality of image volumes which are representative of different portions of the patient's body. The image data of each image volume includes image data which is representative of the center of k-space. The acquisition of image data which is representative of the center of k-space is correlated with a concentration of contrast agent in the artery(ies) residing in the image volume being substantially greater than the concentration of contrast agent in veins and background tissue adjacent to the artery(ies).

Abstract: The present invention relates to a head restraint kit for use with a medical head device for immobilizing the head of a patient in medical research, diagnosis and operation. The head restraint kit is particularly suitable for use with a head coil for magnetic resonance imaging. The head restraint kit contains a head rest pillow for providing support to the head of a patient, a neck cushion for providing neck support, and one or more wedge cushions for providing further support for the head. The head restraint kit may also contain one or more compact square cushions which can be inserted into a space between the head and the medical head device for additional head support. The head restraint kit may further contain a cloth strap placed over the forehead of a patient for protecting and securing the head against movement.

Abstract: In a magnetic resonance apparatus, the transmission coil for generating the radiofrequency excitation field is stationarily arranged. The geometry of the transmission coil is permanently prescribed. For acquiring the magnetic resonance signal, the reception arrangement includes at least one first local coil. This is secured to a movable carrier, so that it can be placed against the person from a remote position. The carrier is secured in a carrier mount arranged stationarily within the examination volume.

Abstract: The present invention is directed to slice selective magnetization preparation for moving table MRI. The present invention includes a method of magnetization preparation that takes into account patient movement or translation during the imaging process. The present invention adjusts or modifies the frequency at which magnetization preparation pulses are applied to offset the preparation pulse in space. This allows preparation pulses to be interleaved with imaging and enables magnetization preparation without sacrificing other imaging variables or parameters defined for the particular MR study. As such, contrast within a reconstructed image is improved.

Abstract: Some embodiments include a particle source, an RF power source, an accelerator waveguide, and an imaging device. The particle source is to generate a first injector current and a second injector current, the first injector current being less than the second injector current. The RF power source is to generate first RF power at a first pulse rate and second RF power at a second pulse rate, the first pulse rate being greater than the second pulse rate. The accelerator waveguide is to accelerate a first electron beam based on the first injector current and the first RF power and to accelerate a second electron beam based on the second injector current and the second RF power, and the imaging device is to acquire an image based on the first electron beam. The second electron beam may be used to deliver treatment radiation to a patient.

Abstract: A magnetic resonance imaging system is provided with a fixture which can be mounted to the static field magnet within the patient-receiving space of the magnet. The fixture can support and stabilize the patient.

Abstract: A medical examination device (1) comprising an examination space (3), a combination of a frame (5) and a patient table (4), and rack (8) which can be driven by a drive (9, 10) to displace a patient on the patient table into and out of the examination space. The rack comprises an elongated push-pull member (8) which is connected to the patient table and which has a length that exceeds the length of the patient table. As a result, the patient table can be displaced from the frame into the examination space over a distance that is larger than the length of the patient table.

Abstract: With the beam scanning probe system for surgery, a pointer indicating the observation point of a beam scanning probe is superimposed upon an image of a lesion to be operated on in the head which is obtained via a TV camera or a surgery microscope, and the superimposed image information is registered as such in an image recording device. With the beam scanning probe system for surgery, information of a cytological picture is also registered in the image recording device. With the beam scanning probe system for surgery, the image recording device registers the two image information in a paired fashion. Through this arrangement, the beam scanning probe system for surgery can smoothly locate, for a given cytological picture, a site of a tumor to be treated from which the picture was obtained, which will ease the operation.

Abstract: Systems and methods for the orientation of soft tissue such as breast tissue for enhanced accuracy of imaging and/or procedures such as a biopsy or excision are disclosed. The system for orientating and maintaining the orientation of soft tissue generally includes a frame defining an opening, the frame being configured to orient and immobilize an area of soft tissue positioned on one side of the opening, an attachment mechanism to secure the frame to an attachment region defined by the area of soft tissue or by a skin surface overlying the area of soft tissue, to facilitate orienting and immobilizing the area of soft tissue, and an imaging device to image the area of soft tissue. The opening may allow a probe of the imaging device or imaging energy transmitted by the imaging device to be movable therein for image scanning of the soft tissue. The probe, e.g., an ultrasound transducer can be rotated within the frame such that the probe scans at least either of two perpendicular directions within the frame.

Abstract: The imaging system can comprise a plurality of elongated rails, a scanhead assembly, and a small animal mount assembly. The scanhead assembly is selectively mounted onto a first rail and is constructed and arranged for movement in a linear bi-directional manner along the longitudinal axis of the first rail. The small-animal mount assembly is selectively mounted onto a second rail and is constructed and arranged for movement in a linear bi-directional manner along the longitudinal axis of the second rail. The second rail being mounted relative to the first rail such that the longitudinal axis of the second rail is at an angle to the longitudinal axis of the first rail. The imaging system can also comprise a needle injection assembly that is selectively mounted onto the third rail and is constructed and arranged for movement in a linear bi-directional manner along the longitudinal axis of the third rail.

Abstract: A system and method for preparing a virtual three-dimensional representation of a first portion of a bone. The method may comprise obtaining, from a first orientation with respect to the first portion of the bone, first image data of the first portion of the bone and obtaining, from a second, different orientation with respect to the first portion of the bone, second image data of the first portion of the bone. A three-dimensional (3D) virtual representation of the first portion of the bone may be generated. The 3D virtual representation of the first portion of the bone may be displayed. The displayed 3D virtual representation may have an orientation, determined using at least the difference between the first and second orientations from which the first and second image data were obtained.

Abstract: MRI echo data is acquired by performing selective-excitation on regions composed of multi-slices of an object, while the object is moved continuously. The positions of the multi-slices are moved within a predetermined imaging range fixedly determined by an MRI system, according to object movement. This allows positions of the multi-slices to be changed in compliance with the moved object, so that the multi-slices positionally track with the object within the imaging range. Accordingly, a multi-slice imaging technique can be provided, which is executable during even continuous movement of the object.

Abstract: The present invention is a technique and apparatus for acquiring anatomic information used in diagnosing and characterizing abdominal aortic aneurismal disease and the like. This technique provides anatomic information, in the form of images, using a combination of a plurality of magnetic resonance angiography sequences, including a spin-echo and four contrast enhanced (e.g., gadolinium) magnetic resonance angiography sequences. The anatomic images may be used in, for example, pre-operative, operative and post-operative evaluation of aortic pathology, including aneurysms, atherosclerosis, and occlusive disease of branch vessels such as the renal arteries. The gadolinium-enhanced magnetic resonance angiography provides sufficient anatomic detail to detect aneurysms and all relevant major branch vessel abnormalities seen at angiography operation.

Abstract: Haemodynamic indices of an organ or a part of tissue are determined from a time series of tomographic data obtained by means of Magnetic Resonance Imaging. Maps of indices are produced, being significant of the dynamics of the capillary tissue flow acquired during rapid bolus injection of a tracer that stays mainly intravascular. The method may be used for evaluating the efficacy of a drug on an organ, or for obtaining information of the likelihood of recovery of an organ or part of tissue upon or during a period of insufficient vascular supply or during the progression of a chronic disease. The method may be used for discriminating between relevant therapy of an organ.

Abstract: In a magnetic resonance imaging apparatus, a transmitting/receiving coil is attached to a patient at a region of interest and disposed within a static magnetic field, a radio-frequency magnetic field, and a gradient magnetic field and an image of the patient is obtained. A tabletop is used to move the patient in the static field in a horizontal direction within a horizontal plane and up and down in a direction that is perpendicular to the horizontal plane, a patient couch controller causing the tabletop to move, based on the position of the region of interest obtained from the image, so that the position of the region of interest is caused to coincide in three dimensions with the center of the static magnetic field and/or the gradient magnetic field.

Abstract: System, apparatus and method for performing magnet resonance imaging. The apparatus comprises first and second members for distributing the weight of a patient to be imaged in a substantially upright position between the patient's knees and buttocks. The system comprises a horizontal field magnet magnetic resonance imaging apparatus in combination with the apparatus. In accordance with the method a patient is imaged in an ergonomic position with the patient's weight distributed between the patient's buttocks and knees.

Abstract: Certain embodiments of the present invention provide a method for three-dimensional cine EBA/CTA imaging. The method includes monitoring a cardiac cycle of a patient and selecting a trigger point along the cardiac cycle. When the cardiac cycle of the patient reaches the trigger point, a computed tomography (CT) scan of the patient is initiated. At least two CT scans of the patient are performed during a time period over two or more cardiac cycles. A cine angiography image is constructed from the at least two CT scans.

Abstract: A medical imaging method utilizing pads for supporting the head and neck of a supine patient during the medical imaging, wherein the pads produce either flexion or extension of the cervical vertebrae. A cavity is provided in the pad to define an area of non-contact on the back of the neck and to receive a secondary coil if present.

Abstract: A method and apparatus for producing an image from an extended volume of interest within a subject using a Magnetic Resonance Imaging (MRI) system are provided. The method comprises translating the volume using a positioning device along an axis of the MRI system. A plurality of MR signals are detected from at least one radiofrequency (RF) coil array for a given field-of-view within the MRI system as the positioning device is translated. The plurality of MR signals are sent to a plurality of receivers wherein the receivers are each adapted to adjust their respective center frequencies at a rate commensurate with a rate of translation of the positioning device. A plurality of respective sub-images corresponding to the plurality MR signals for each of the plurality of receivers are combined to form a composite image of the volume of interest.