text: Steps are also being taken in academia and industry to use this hyperpolarized gas for lung imaging. Once the gas (Xe) is hyperpolarized through the SEOP process and the alkali metal is removed, a patient (either healthy or suffering from a lung disease), can breathe in the gas and an MRI can be taken. This results in an image of the spaces in the lungs filled with the gas. While the process to get to the point of imaging the patient may require knowledge from scientists very familiar with this technique and the equipment, steps are being taken to eliminate the need for this knowledge so that a hospital technician would be able to produce the hyperpolarized gas using a polarizer.
  Hyperpolarization machines are currently being used to develop hyperpolarized xenon gas that is used as a visualization agent for the lungs. Xenon-129 is a safe inert noble gas that can be used to quantify lung function. With a single 10-second breath hold, hyperpolarized Xenon-129 is used with MRI to enable 3-dimensional lung imaging. Xenon MRI is being used to monitor patients with pulmonary-vascular, obstructive, or fibrotic lung disease.
  Temperature-ramped Xe SEOP in an automated high-output batch model hyperpolarized Xe can utilize three prime temperature range to put certain conditions: First, Xe hyperpolarization rate is superlative high at hot condition. Second, in warm condition the hyperpolarization of Xe is unity. Third, at cold condition, the level of hyperpolarization of Xe gas at least can get the (at human body's temperature) imaging although during the transferring into the Tedlar bag having poor percentage of Rb (less than 5 ng/L dose).
  Multiparameter analysis of Rb/Xe SEOP at high xenon pressure and photon flux could be used as 3D-printing and stopped flow contrasting agent in clinical scale. In situ technique, the NMR machine was run for tracking the dynamics of Xe polarization as a function of SEOP-cell conditioning with different operating parameters such as data collecting temperature, photon flux, and Xe partial pressure to enhance the Xe polarization (P).
  All of those polarization values of Xe has been approved by pushing the hyperpolarized Xe gas and all MRI experiment also done at lower magnetic field 47.5 mT. Finally demonstrations indicated that such a high pressure region, polarization of Xe gases could be increment even more that the limit that already has been shown. Better SEOP thermal management and optimizing the polarizing kinetics has been further improved with good efficacy.