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Journal of Medical Engineering & Technology Volume 26, 2002 - Issue 4
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Research Article

Continuous amperometric monitoring of subcutaneous oxygen in rabbit by telemetry

W. K. Ward Legacy Clinical Research and Technology Center, 1225 NE 2nd Avenue, Portland, OR 97232, USACorrespondence[email protected]
,
M. D. Wood Legacy Clinical Research and Technology Center, 1225 NE 2nd Avenue, Portland, OR 97232, USA
&
E. P. Slobodzian Legacy Clinical Research and Technology Center, 1225 NE 2nd Avenue, Portland, OR 97232, USA
Pages 158-167 | Published online: 04 Aug 2009

  • DAVIES P. and BRINK, F., 1942, Microelectrodes for measuring local oxygen tension in animal tissue. Reviews of Instrumentation, 83, 524-530.
  • SILVER, I., 1965, The measurement of oxygen tension in tissues. In J.B. Payne and D.W. Hill (eds), A Symposium on Oxygen Measurements in Blood and Tissues and their Significance (London: JA. Churchill), pp. 135-153.
  • CATER, D., 1965, The significance of oxygen tension measurements in tissues. In J.B. Payne and D.W. Hill (eds), A Symposium on Oxygen Measurements in Blood and Tissues and their Significance (London: JA. Churchill), pp. 155-172.
  • KERGER, H., SALT/MAN, D.J., MENGER, M.D., MESSMER, K. and INTAGLIETTA, M., 1996, Systematic and subcutaneous microvascular PO2 dissociation during 4-h hemorrhagic shock in conscious hamsters. American Journal of Physiology, 270, H827-836.
  • GOTTRUP, F., FIRMIN, R., RABKIN, J., HALUDAY, B.J. and HUNT, T.K., 1987, Directly measured tissue oxygen tension and arterial oxygen tension assess tissue perfusion. Critical Care Medicine, 15, 1030-1036.
  • HUTCHINSON, PJ., O'CONNELL, M.T., GUPTA, A.K., MASKELL, L.B., HUTCHINSON, D.B., PICKARD, J.D. and KIRKPATRICK, P.J., 2000, Head injury monitoring using cerebral microdialysis and Paratrend multiparameter sensors. Zentralbl Neurochir, 61, 88-94.
  • DUNN, J.F. and ROCHE, M., 1999, Measurement of arterial, venous, and interstitial pO2 during acute hypoxia in rat brain using a time-resolved luminescence-based oxygen sensor. Advances in Experimental Mediane and Biology, 471, 43-48.
  • HJORTDAL. V.E., HENDRIKSEN, T.B., KJOISETH, D., HANSEN, E.S., DJURHUUS, J.C. and GOTTRUP, F., 1991, Tissue oxygen tension in myocutaneous flaps. Correlation with blood flow and blood gases. European Journal of Surgery, 157, 307-311.
  • THOMAS, G.M., 1994, Hypoxia and Carcinoma of the Cervix. Seminars in Radiation Oncology, 4, 9-15.
  • SAUER, G., WEBER, K.J., PESCHKE, P. and EBLE, M.J. 2000, Measurement of hypoxia using the comet assay correlated with preirradiation microelectrode PO2 histography in R3327-AT rodent tumors. Radiation Research, 154, 439-446.
  • BUSSINK,J., KAANDERS, J.H., STRIK, A.M., VOJNOVIC, B. and VAN DER KOGEL, A.J., 2000, Optical sensor-based oxygen tension measurements correspond with hypoxia marker binding in three human tumor xenograft lines. Radiation Research, 154, 547-555.
  • ERTEFI, S. and GOUGH. DA, 1989, Physiological preparation for studying the response of subcutaneously impaired glucose and oxygen sensors. Journal of Biomedical Engineering, 11, 362-368.
  • GOUGH, D.A., LUCUSANO, J.Y. and TSE, P.H., 1985, Twodimensional enzyme electrode sensor for glucose. Annals of Chemistry, 57, 2351-2357.
  • Gough, DA., 1980, Rotated, membrane covered, oxygen electrode. Annals of Chemistry, 52, 1126-1130.
  • GOUGH, D.A., ARMOUR, J.C. and BAKER, D.A., 1997, Advances and prospects in glucose assay technology. Diabetologia, 40(suppl. 2), S102-S107.
  • ARMOUR, J.C., LUCISANO, J.Y, MCKEAN, B.D. and GOUGH, D.A., 1990, Application of chronic intravascular blood glucose sensor in dogs. Diabetes, 39, 1519-1526.
  • BRUNSTEIN, E., ABEL, P., GENS, A., EICH, K. and WOEDTKE, T.V., 1989, Preparation and validation of implantable electrodes for the measurement of oxygen and glucose. Biomedica et Biochimica Acta, 48, 911-917.
  • FISCHER, U., HIDDE, A., HERRMANN, S., VON WOEDTKE, T., REBRIN, K. and ABEU P., 1989, Oxygen tension at the subcutaneous implantation site of glucose sensors. Biomedica a Biochimica Acta, 48, 965-971.
  • GOTTRUP, F., GELLET, S., KIRKEGAARD, L., HANSEN, E.S. and JOHANNSEN, G., 1988, Continuous monitoring of tissue oxygen tension during hyperoxia and hypoxia: relation of subcutaneous, transcutaneous, and conjunctival oxygen tension to hemodynamic variables. Critical Care Medicine, 16, 1229-1234.
  • GRTCZYNSKI, I., GRYCZYNKSI, Z., RAO, G. and LAKOWICZ, J.R., 1999, Polarization-based oxygen sensor. Analyst, 124, 1041-1044.
  • SOINI, H.O. and TAKAIA, J., 1991, Measurement of tissue oxygen tension: comparison between two subcutaneous oxygen tonometers. Journal of Clinical Monitoring, 7, 227231.
  • SUSKI, M.D., ZABEL, D., LEVIN, V., SCHEUENSTUHL, H. and HUNT, T.K., 1997, Effect of hypoxic hypoxia on transmural gut and subcutaneous tissue oxygen tension. Advances in Experimental Medicine Biology, 411, 319-322.
  • MAIAISRIE, S.C., MALEKZADEH, S. and BIEDIJNGMAIER, J.F., 1998, In vivo analysis of bacterial biofilm formation on facial bioimplants. Laryngoscope, 108, 1733-1738.
  • RUPP, M.E., ULPHANI, J.S., FEY, P.D., BARTSCHT, K. and MACK, D., 1999, Characterization of the importance of polysaccharide intercellular adhesion/hemagglutinin of Staphylococcus epidermidis in the pathogenesis of biomaterial-based infection in a mouse foreign body infection model. Infection Immunology, 67, 2627-2632.
  • ALBANESE, RA., 1973, On microelectrode distortion of tissue oxygen tension. Journal of Theoretical Biology, 38, 143154.
  • SCHNEIDERMAN, G. and GOUISTICK, T.K. 1978, Oxygen electrode design criteria and performance characteristics: recessed cathodes. Journal of Applied Physiology, 45, 145154.
  • AUKIAN, K.G. and RENKIN, E.M., 1984, Protein concentration of lymph and interstitial fluid in the rat tail. American Journal of Physiology, ??, ??-??.
  • EBERHARD, P. and MINDT, W., 1981, Interference of anesthetic gases at skin surface sensors for oxygen and carbon dioxide. Critical Care Medicine, 9, 717-720.
  • McHuGH, R.D., EPSTEIN, R.M. and LONGNECKER, D.E., 1979, Halothane mimics oxygen in oxygen microelectrodes. Anesthesiology, 50, 47-49.
  • KERGER, H., SALTZMAN, D.J., GONZALES, A., TSAI, A.G., VAN ACKERN, K., WINSLOW, R.M. and INTAGIJETTA, M., 1997, Microvascular oxygen delivery and interstitial oxygenation during sodium pentobarbital anesthesia. Anesthesiology, 86, 372-386.
  • AIJUNESE, R.A., 1971, Use of membrane-covered oxygen cathodes in tissue. Journal of Theoretical Biology, 33, 91-103.
  • GERRITSEN, M., JANSEN, J.A., KROS, A., VRIEZEMA, D.M., SOMMERDIJK, N.A., NOLTE, R.J., LUTTERMAN, J. A., VAN HOVELL, S.W. and VAN DER GAAG, A., 2001, Influence of inflammatory cells and serum on the performance of implantable glucose sensors. Journal of Biomedical Materials Research, 54, 69-75.
  • KYROIAINEN, M., RIGSBY, P., EDDY, S. and VADGAMA, P., 1995, Bio-/haemocopatibility: implications and outcomes for sensors? Acta Anaesthesiolica Scandmaica, 104(suppl.), 5560.
  • FISCHER, U, REBRIN, K., VON WOEDTKE, T. and ABEL, P., 1994, Clinical usefulness of the glucose concentration in the subcutaneous tissue-properties and pitfalls of electrochemical biosensors. Hormone Metabolism Research, 26, 515-522.
  • VALLET, B., TAVKRNIKR, B. and LUND, N., 2000, Assessment of tissue oxygenation in the critically-ill. European Journal of Anaesthesiology, 17, 221-229.
  • GABALSKI, E.G., PINTO, H., BROWN, J.M., BLOCH, D.A. and TERRIS, DJ., 1998, Pretreatment and midtreatment measurement of oxygen tension levels in head and neck cancers. Laryngoscope, 108, 1856-1860.
  • FKUKRSTKIN, T.H., LANGKMANN, H., GRATZL, O. and MENDELOWITSCH, A., 2000, A four lumen screwing device for multiparametric brain monitoring [In Process Citation]. Acta Neuorchir (Wien), 142, 909-912.
  • ARTRU, F., JOURDAN, C., PERRKT-LIAUDKT, A., CHARLOT, M. and MOTTOLKSK, C., 1998, Low brain tissue oxygen pressure: incidence and corrective therapies. Neurology Research, 20(suppl. 1), S48-S51.
  • YANG, S., ATANASOV, P. and WILKINS, E., 1995, Glucose biosensors based on oxygen electrode with sandwich-type membranes. Annals of Biomedical Engineering, 23, 833-839.

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