A Review of Low-Frequency EPR Technology for the Measurement of Brain pO2 and Oxidative Stress

被引:0
|
作者
John Weaver
Ke Jian Liu
机构
[1] University of New Mexico Health Sciences Center,Department of Pharmaceutical Sciences, College of Pharmacy
来源
关键词
D O I
暂无
中图分类号
学科分类号
摘要
EPR can uniquely measure paramagnetic species. Although commercial EPR was introduced in 1950s, the early studies were mostly restricted to chemicals in solution or cellular experiments using X-band EPR equipment. Due to its limited penetration (< 1 mm), experiments with living animals were almost impossible. To overcome these difficulties, Swartz group, along with several other leaders in field, pioneered the technology of low-frequency EPR (e.g., L-band, 1–2 GHz). The development of low-frequency EPR and the associated probes have dramatically expanded the application of EPR technology into the biomedical research field, providing answers to important scientific questions by measuring specific parameters that are impossible or very difficult to obtain by other approaches. In this review, which is aimed at highlighting the seminal contribution from Swartz group over the last several decades, we will focus on the development of EPR technology that was designed to deal with the potential challenges arising from conducting EPR spectroscopy in living animals. The second half of the review will be concentrated on the application of low-frequency EPR in measuring cerebral tissue pO2 changes and oxidative stress in various physiological and pathophysiological conditions in the brain of animal disease models.
引用
收藏
页码:1379 / 1394
页数:15
相关论文
共 50 条
  • [31] Origin of low-frequency dielectric dispersion in KH2PO4 and RbH2PO4 ferroelectric crystals
    Kim, BG
    Kim, JJ
    PHYSICAL REVIEW B, 1999, 59 (21): : 13509 - 13512
  • [32] LOW-FREQUENCY HYDROGEN MODES IN KH2PO4 TYPE FERROELECTRIC CRYSTALS
    BLINC, R
    SVETINA, S
    PHYSICS LETTERS, 1965, 15 (02): : 119 - &
  • [33] Simultaneous continuous measurement of pO2, pCO2, pH and temperature in brain tissue and sagittal sinus in a porcine model
    Menzel, M
    Rieger, A
    Roth, S
    Soukup, J
    Peuse, C
    Hennig, C
    Molnar, P
    Furka, I
    Radke, J
    INTRACRANIAL PRESSURE AND NEUROMONITORING IN BRAIN INJURY, 1998, 71 : 183 - 185
  • [34] MEASUREMENT OF BLOOD-FLOW, TISSUE PO2 AND TISSUE PCO2 CONTINUOUSLY AND SIMULTANEOUSLY IN THE SAME STRUCTURE OF THE BRAIN
    SEYLAZ, J
    PINARD, E
    DITTMAR, A
    BIRER, A
    MEDICAL & BIOLOGICAL ENGINEERING & COMPUTING, 1979, 17 (01) : 19 - 24
  • [35] Brain Tissue PO2 Measurement During Normoxia and Hypoxia Using Two-Photon Phosphorescence Lifetime Microscopy
    Xu, Kui
    Boas, David A.
    Sakadzic, Sava
    LaManna, Joseph C.
    OXYGEN TRANSPORT TO TISSUE XXXIX, 2017, 977 : 149 - 153
  • [36] RBC flow imaging and pO2 measurement in cerebral microcirculation :: Effect of hemodilution on oxygen supply to brain cortical arterioles
    Arai, T
    Tsukada, K
    Sekizuka, E
    Oshio, C
    Terao, S
    Hase, K
    Minamitani, H
    PROCEEDINGS OF THE 25TH ANNUAL INTERNATIONAL CONFERENCE OF THE IEEE ENGINEERING IN MEDICINE AND BIOLOGY SOCIETY, VOLS 1-4: A NEW BEGINNING FOR HUMAN HEALTH, 2003, 25 : 1054 - 1057
  • [37] TRANS-CUTANEOUS MEASUREMENT OF THE PO2 IN NORMAL SUBJECTS AND IN PATIENTS WITH ARTERIAL-DISEASE DURING A STRESS TEST
    AMBROSI, C
    GERARD, R
    JOURNAL DES MALADIES VASCULAIRES, 1985, 10 (01) : 37 - 42
  • [38] Low frequency cMUT technology: Application to measurement of brain movement and assessment of bone quality
    Certon, D.
    Ternifi, R.
    Boulme, A.
    Legros, M.
    Minonzio, J. -G.
    Talmant, M.
    Patat, F.
    Remenieras, J. -P.
    IRBM, 2013, 34 (02) : 159 - 166
  • [39] A mitochondrial-targeted antioxidant improves myofilament Ca2+ sensitivity during prolonged low frequency force depression at low PO2
    Gandra, Paulo G.
    Shiah, Amy A.
    Nogueira, Leonardo
    Hogan, Michael C.
    JOURNAL OF PHYSIOLOGY-LONDON, 2018, 596 (06): : 1079 - 1089
  • [40] LOW-FREQUENCY PROTON MODES IN THE ANTIFERROELECTRIC CRYSTAL NH4H2PO4.
    Volkov, A.A.
    Kozlov, G.V.
    Lebedev, S.P.
    Soviet Physics, Solid State (English translation of Fizika Tverdogo Tela), 1980, 22 (10): : 1789 - 1791