Question: When was the company that publishes the journal Magnetic Resonance Imaging established ?

Context articles: Elsevier
Magnetic resonance velocimetry
Strain–encoded magnetic resonance imaging
Magnetic resonance neurography
Cardiac magnetic resonance imaging
Fast low angle shot magnetic resonance imaging
Nuclear magnetic resonance
Magnetic Resonance Imaging (journal)
Phase contrast magnetic resonance imaging
Seiji Ogawa

Elsevier (] ) is an information and analytics company and one of the world's major providers of scientific, technical, and medical information.
 It was established in 1880 as a publishing company.
 It is a part of the RELX Group, known until 2015 as Reed Elsevier.
 Its products include journals such as "The Lancet" and "Cell", the ScienceDirect collection of electronic journals, the "Trends" and "Current Opinion" series of journals, the online citation database Scopus, and the ClinicalKey solution for clinicians.
 Elsevier's products and services include the entire academic research lifecycle, including software and data-management, instruction and assessment tools.
Magnetic resonance velocimetry (MRV) is an experimental method to obtain velocity fields in fluid mechanics.
 MRV is based on the phenomenon of nuclear magnetic resonance and adapts a medical magnetic resonance imaging system for the analysis of technical flows.
 The velocities are usually obtained by phase contrast tomography techniques.
 This means velocities are calculated from phase differences in the image data that has been produced using special gradient techniques.
 MRV can be applied using common medical MRI scanners.
 The term "magnetic resonance velocimetry" became current due to the increasing use of MR technology for the measurement of technical flows in engineering.
Strain–encoded magnetic resonance imaging (SENC-MRI) is a magnetic resonance imaging a technique for imaging the strain of deforming tissue.
 It is undergoing testing to diagnose some heart diseases, particularly congenital right ventricle dysfunctions, which are difficult to diagnose.
 It is an improvement on magnetic resonance elastography in that it has a faster imaging time, and less post-processing time, to turn the acquired data into a useful image.
Magnetic resonance neurography (MRN) is the direct imaging of nerves in the body by optimizing selectivity for unique MRI water properties of nerves.
 It is a modification of magnetic resonance imaging.
 This technique yields a detailed image of a nerve from the resonance signal that arises from in the nerve itself rather than from surrounding tissues or from fat in the nerve lining.
 Because of the intraneural source of the image signal, the image provides a medically useful set of information about the internal state of the nerve such as the presence of irritation, nerve swelling (edema), compression, pinch or injury.
 Standard magnetic resonance images can show the outline of some nerves in portions of their courses but do not show the intrinsic signal from nerve water.
 Magnetic resonance neurography is used to evaluate major nerve compressions such as those affecting the sciatic nerve (e.g. piriformis syndrome), the brachial plexus nerves (e.g. thoracic outlet syndrome), the pudendal nerve, or virtually any named nerve in the body.
 A related technique for imaging neural tracts in the brain and spinal cord is called magnetic resonance tractography or diffusion tensor imaging.
Cardiovascular magnetic resonance imaging (CMR), sometimes known as cardiac MRI, is a medical imaging technology for the non-invasive assessment of the function and structure of the cardiovascular system.
 It is derived from and based on the same basic principles as magnetic resonance imaging (MRI) but with optimization for use in the cardiovascular system.
 These optimizations are principally in the use of ECG gating and rapid imaging techniques or sequences.
 By combining a variety of such techniques into protocols, key functional and morphological features of the cardiovascular system can be assessed.
Fast low angle shot magnetic resonance imaging (FLASH MRI) is a particular sequence of magnetic resonance imaging.
 It is a gradient echo sequence which combines a low-flip angle radio-frequency excitation of the nuclear magnetic resonance signal (recorded as a spatially encoded gradient echo) with a rapid repetition time.
 It is the generic form of steady-state free precession imaging.
Nuclear magnetic resonance (NMR) is a physical phenomenon in which nuclei in a magnetic field absorb and re-emit electromagnetic radiation.
 This energy is at a specific resonance frequency which depends on the strength of the magnetic field and the magnetic properties of the isotope of the atoms; in practical applications, the frequency is similar to VHF and UHF television broadcasts (60–1000 MHz).
 NMR allows the observation of specific quantum mechanical magnetic properties of the atomic nucleus.
 Many scientific techniques exploit NMR phenomena to study molecular physics, crystals, and non-crystalline materials through nuclear magnetic resonance spectroscopy.
 NMR is also routinely used in advanced medical imaging techniques, such as in magnetic resonance imaging (MRI).
Magnetic Resonance Imaging is a peer-reviewed scientific journal published by Elsevier, encompassing biology, physics, and clinical science as they relate to the development and use of magnetic resonance imaging technology.
 "Magnetic Resonance Imaging" was established in 1982 and the current editor-in-chief is John C. Gore.
 The journal produces 10 issues per year.
Phase contrast magnetic resonance imaging (PC-MRI) is a specific type of magnetic resonance imaging used primarily to determine flow velocities.
 PC-MRI can be considered a method of Magnetic Resonance Velocimetry.
 Since modern PC-MRI is typically time-resolved, it can also be referred to as 4D imaging (three spatial dimensions plus time).
Seiji Ogawa (小川 誠二 "Ogawa Seiji", born January 19, 1934) is a Japanese researcher known for discovering the technique that underlies Functional Magnetic Resonance Imaging (fMRI).
 He is regarded as the father of modern functional brain imaging.
 He determined that the changes in blood oxygen levels cause its magnetic resonance imaging properties to change, allowing a map of blood, and hence, functional, activity in the brain to be created.
 This map reflected which neurons of the brain responded with electrochemical signals to mental processes.
 He was the first scientist who demonstrated that the functional brain imaging is depended on the oxygenation status of the blood, the BOLD effect.
 The technique was therefore called Blood oxygenation level-dependent or BOLD contrast.
 Functional MRI (fMRI) has been used to map the visual, auditory and sensory regions and moving toward higher brain functions such as cognitive functions in the brain.