Abstract: A method of managing medical information is disclosed. Medical image data is received, at a real-time transfer engine, at the same time that the patient is being scanned by a medical imaging device. The medical image data is then converted to a browser-compatible image format at a converter engine connected to receive the medical image data from the real-time transfer engine. The converter engine comprises a decoder engine for extracting image pixel data from the medical image data and an encoding engine for converting the image pixel data to a browser-compatible format connected to receive the image pixel data. The image pixel data may be converted to a browser compatible format without loss of diagnostic data.

Abstract: A method of managing medical information is disclosed. Medical image data is received, at a real-time transfer engine, at the same time that the patient is being scanned by a medical imaging device. The medical image data is then converted to a browser-compatible image format at a converter engine connected to receive the medical image data from the real-time transfer engine. The converter engine comprises a decoder engine for extracting image pixel data from the medical image data and an encoding engine for converting the image pixel data to a browser-compatible format connected to receive the image pixel data. The image pixel data may be converted to a browser compatible format without loss of diagnostic data.

Abstract: A method of managing medical images is disclosed. The method comprises receiving a plurality of images corresponding to a plurality of modalities, displaying to a user at a client computer a selection comprising images associated with at least two different modalities, and, in response to the user selection, simultaneously displaying at the client computer images corresponding to at least two different modalities.

Abstract: A method of managing medical information is disclosed. The method comprises receiving, at a first computer, requests for medical information from a second computer. The first computer responds by sending a set of instructions to the second computer. The instructions are sufficient to allow the second computer to automatically retrieve the requested medical information from a third computer.

Abstract: Methods and systems for obtaining intravascular magnetic resonance images of blood flow are disclosed. In preferred forms, a train of radio frequency (RF) pulses is produced by an intravascularly introduced RF transmitter positioned in proximate location to the blood flow so as to create a continuous stream of coherently excited protons of the blood flow. The coherently excited protons of the blood flow are sampled as the protons freely precess while flowing through a region of three dimensional space unaffected by the ongoing intravascular RF excitation. An image of the sampled coherently excited protons may then be constructed.

Abstract: A method of managing medical information is disclosed. The method comprises the steps of receiving medical information in a format incompatible with the World Wide Web and converting the medical information to a format compatible with the World Wide Web. Further, the medical information is physically stored at a single location.

Abstract: Medical image management system to allow any conventional Internet browser to function as a medical workstation. The system may be used to convert medical images from a plurality of image formats to browser compatible format. The Invention also relates to methods to manipulate digital medical images in such a way that multiple imaging modalities from multiple different vendors can be assembled into a database of Internet standard web pages without loss of diagnostic information.

Abstract: A method for creating a magnetic resonance angiography (MRA) image including the steps of acquiring a magnetic resonance image in which a predetermined slice is excited using a train of radiofrequency (RF) pulses; and acquiring image data between the RF pulses such that the excited slice is viewable from a side view rather than from a face view. An MRA image generated by the steps of acquiring a magnetic resonance image in which a predetermined slice is excited using a train of radiofrequency (RF) pulses; acquiring image data between the RF pulses; viewing a side view of the slice, including dynamic spins within and exiting the slice.

Abstract: Medical image management system to allow any conventional Internet browser to function as a medical workstation. The system may be used to convert medical images from a plurality of image formats to browser compatible format. The invention also relates to methods to manipulate digital medical images in such a way that multiple imaging modalities from multiple different vendors can be assembled into a database of Internet standard web pages without loss of diagnostic information.

Abstract: A method for creating a magnetic resonance angiography (MRA) image including the steps of acquiring a magnetic resonance image in which a predetermined slice is excited using a train of radiofrequency (RF) pulses; and acquiring image data between the RF pulses such that the excited slice is viewable from a side view rather than from a face view. An MRA image generated by the steps of acquiring a magnetic resonance image in which a predetermined slice is excited using a train of radiofrequency (RF) pulses; acquiring image data between the RF pulses; viewing a side view of the slice, including dynamic spins within and exiting the slice.

Abstract: Medical image management system to allow any conventional Internet browser to function as a medical workstation. The system may be used to convert medical images from a plurality of image formats to browser compatible format. The invention also relates to methods to manipulate digital medical images in such a way that multiple imaging modalities from multiple different vendors can be assembled into a database of Internet standard web pages without loss of diagnostic information.

Abstract: By administering MR contrast agent such as Gd-DPTA, waiting for a predetermined period of time and then acquiring T1-weighted MR image data, infarcted myocardial tissue can be distinguished from injured myocardial tissue. An in vivo cine MR study is used to distinguish normal myocardial tissue from injured or infarcted myocardial tissue. As a result, it is possible to distinguish between normal, injured but living, and infarcted myocardium using MR imaging.

Abstract: Methods for increasing the efficiency of .sup.23 Na and .sup.39 K imaging of biological tissue are provided. For maximum efficiency, the receiver bandwidth is set equal to or less than the quantity N.sub.ro /T*2. Methods for assessing cardiac tissue viability using .sup.23 Na imaging are also provided.