Abstract:
A magnetic resonance system (MRS), useful for imaging a patient, comprising: (a) a magnetic resonance device (MRD) for imaging a patient, comprising an open bore, the MRD at least partially contained in an envelope comprising in its circumference at least one recess; and, (b) an MRI-safe cart made of MRI-safe material, comprising a substantially horizontal base and at least one substantially horizontal incubator above the base, the base and the incubator are interconnected by at least one pillar. At least a portion of the cart and the MRD are configured to fit together such that at least a portion of the incubator is reversibly housed within the MRD, and further at least a portion of the base is reversibly housed within at least one recess.
Abstract:
An MRI device for providing high-contrast, high-resolution images of a fluid. The device includes: an envelope for at least partially confining the fluid; a plurality of magnets located at least partially around the envelope; and a CPU to process the images, including a computer readable medium containing instructions for generating at least one third image superimposing at least one image of the first images with at least one image of the second images, whereby a high-contrast, high-resolution real-time continuous images of the fluid is obtained.
Abstract:
A magnetically permeable neonate transport capsule (MPNTC) for transporting a premature neonate from a host infant incubator having a steady environmental condition to an MRD. The MPNTC has at least one first normally open configuration when the capsule is disposed within the incubator and a second closed configuration for removal, transportation, insertion, measurement and vice versa within an MRD device. The MPNTC includes an environmental control system thereby adapted to maintain continuous attachment of the neonate with life support connection lines. The MPNTC is further adapted to maintain environmental conditions substantially similar to the host infant incubator environmental condition when the MPNTC is transported from the incubator to the MRD device.
Abstract:
Means and methods for improving the MRI “image quality in an MRI imaging” apparatus comprising a non-superconducting electromagnet and a plurality of pole pieces are provided. Said means for improving the image quality chosen from the group consisting of (a) means for reducing degradation of MRI image quality due to B0 field instability; (b) means for decreasing or otherwise correcting residual magnetization; (c) means for providing a 3D scout image; and (d) any combination of the above. These means for improving the image quality provides greater resolution of the imaged object relative to an MRI apparatus not containing such means for improving image quality.
Abstract:
A system for redesigning a graphical user interface (GUI). The GUI includes: a computer readable medium (CRM) having instructions, and a screen in communication with the CRM adapted to display a GUI. The GUI includes at least one first portion containing first data represented in first form and at least one second portion containing second data represented in second form. The instructions are for monitoring interaction between a user and the GUI and performing according to the monitoring, at least one action selected from a group consisting of changing representation of the first data to the second form, changing representation of the second data to the first form, and a combination thereof.
Abstract:
A pneumatic sample feedway that is embeddable into a magnetic resonance imaging (MRI) device. The feedway includes: a plurality of capsules enclosing a biological tissue sample; and a conductor pipe connected to a source of a compressed fluid. The pipe receives a train of the capsules and pneumatically forwards the train into the MRI device. The pipe has a proximal terminal that loads the train of capsules into the pipe.
Abstract:
Methods of fastening a cage with a fastening system in an MRD. One method includes: assembling: a plurality of pole pieces; a plurality of side magnets, the side magnets substantially enclosing the pole pieces and thereby defining a magnetic envelope and enclosed volume therein; a plurality of side walls, the side walls substantially enclosing the side magnets; a plurality of face walls and a plurality of fastening rods; and passing a plurality of fastening rods through at least one of the side magnets and at least one of the pole pieces and fastening them in an effective measure, such that the rods physically interconnects at least one pair of side walls.
Abstract:
A comparatively light and compact permanent magnet arrangement for an MRI apparatus has a pair of opposed permanent magnet arrays with a shimming system to adjust the uniformity and strength of a magnetic field in a central chamber of the apparatus. The MRI apparatus is used to examine the extremities of a patient to determine cardiovascular characteristics from an analysis of the blood flow through selected arteries in the extremity. The information collected can be used to calculate such characteristics as total cardiac output, blood flow, arterial wall thickness and elasticity and the presence of plaque.
Abstract:
A comparatively light and compact permanent magnet arrangement for an MRI apparatus has a pair of opposed permanent magnet arrays with a shimming system to adjust the uniformity and strength of a magnetic field in a central chamber of the apparatus. The MRI apparatus is used to examine the extremities of a patient to determine cardiovascular characteristics from an analysis of the blood flow through selected arteries in the extremity. The information collected can be used to calculate such characteristics as total cardiac output, blood flow, arterial wall thickness and elasticity and the presence of plaque.
Abstract:
A pneumatic sample feedway that is embeddable into a magnetic resonance imaging (MRI) device. The feedway includes: a plurality of capsules enclosing a biological tissue sample; and a conductor pipe connected to a source of a compressed fluid. The pipe receives a train of the capsules and pneumatically forwards the train into the MRI device. The pipe has a proximal terminal that loads the train of capsules into the pipe.