The practical success of impedance techniques from an historical perspective

Annals of the New York Academy of Sciences

Volumn 873, Issue , 1999, Pages 1-12

  Schwan, Herman P ^a,b  

^a UNIVERSITY OF PENNSYLVANIA   (United States)

^b NONE   (United States)

Author keywords

[No Author keywords available]

Indexed keywords

BIOCHEMISTRY; BIOPHYSICS; BIOPSY; BODY WATER; BRAIN RADIOGRAPHY; CELL SELECTION; CELL SHAPE; COMPUTER ASSISTED IMPEDANCE TOMOGRAPHY; CONFERENCE PAPER; COULTER COUNTER; DIAGNOSTIC PROCEDURE; DIATHERMY; DISPERSION; DOSIMETRY; ELECTROMAGNETIC FIELD; ELECTROPHYSIOLOGY; HEART FUNCTION; HISTORY; IMPEDANCE; IMPEDANCE PLETHYSMOGRAPHY; LABORATORY; LUNG FUNCTION; MEMBRANE; MONITORING; SPECTROSCOPY; TISSUE CULTURE;

EID: 0032987336     PISSN: 00778923     EISSN: None     Source Type: Book Series    
DOI: 10.1111/j.1749-6632.1999.tb09443.x     Document Type: Conference Paper

References (30)

1. 1. Hoeber, R. 1910. Eine Methode die elektrische Leitfaehigkeit im Innern von Zellen zu messen. Arch. Ges. Physiol. 133: 237-259; 1912, Ein zweites Verfahren die Leitfaehigkeit im Innern von Zellen zu messen. Arch. Ges. Physiol. 148: 189-221; 1913. Messungen der inneren Leitfaehigkeit von Zellen III. Arch. Ges. Physiol. 150: 15-45. These articles were the first to determine internal cell conductivities. They furthermore established the existence of the ß-dispersion and membranes by demonstrating the difference between low-and high-frequency conductivity values.
2. 1. Hoeber, R. 1910. Eine Methode die elektrische Leitfaehigkeit im Innern von Zellen zu messen.Arch. Ges. Physiol. 133: 237-259; 1912, Ein zweites Verfahren die Leitfaehigkeit im Innern von Zellen zu messen. Arch. Ges. Physiol. 148: 189-221; 1913. Messungen der inneren Leitfaehigkeit von Zellen III. Arch. Ges. Physiol. 150: 15-45. These articles were the first to determine internal cell conductivities. They furthermore established the existence of the ß-dispersion and membranes by demonstrating the difference between low-and high-frequency conductivity values.
3. 1. Hoeber, R. 1910. Eine Methode die elektrische Leitfaehigkeit im Innern von Zellen zu messen.Arch. Ges. Physiol. 133: 237-259; 1912, Ein zweites Verfahren die Leitfaehigkeit im Innern von Zellen zu messen. Arch. Ges. Physiol. 148: 189-221; 1913. Messungen der inneren Leitfaehigkeit von Zellen III. Arch. Ges. Physiol. 150: 15-45. These articles were the first to determine internal cell conductivities. They furthermore established the existence of the ß-dispersion and membranes by demonstrating the difference between low-and high-frequency conductivity values.
4. 2. Cole, K. S. 1968. Membranes, Ions, and Impulses. University of California Press, Berkeley/Los Angeles. This is an often-quoted detailed reference to the cellular work done by Frieke, Cole, Curtis, and Schwan and the important extension to the nonlinear level leading to the Hodgkin-Huxley equations.
5. 3. Schwan, H. P. 1957. Electrical properties of tissue and cell suspensions. In Advances in Biological and Medical Physics. Vol. 5, p. 147-209. Academic Press. New York. This often-quoted review summarizes dispersion principles, mechanisms, and dielectric data for biological matter.
6. 4. Grant, E. H., R. J. Sheppard & G. P. South. 1978. Dielectric Behavior of Biological Molecules in Solution. Oxford University Press (Clarendon). London/New York. This and the following reference concentrate on macromolecular dielectric phenomena.
7. 5. Takashima, S. 1989. Electrical Properties of Biopolymers and Membranes. Adam Hilger. Bristol/Philadelphia.
8. 6. Foster, K. R. & H. P. Schwan. 1995. Dielectric properties of tissues - a review. In Handbook of Biological Effects of Electro-Magnetic Radiation, p. 25-102. CRC Press, Boca Raton, Florida. This reference concentrates on cellular aspects.
9. 7. Schwan, H. P. & S. Takashima. 1992. Electrical conduction and dielectric behavior in biological systems. In Encyclopedia of Applied Physics. Vol. 5, p. 177-200. VCH Pub. Weinheim.
10. 8. Pethig, R & D. B. Keill. 1987. The passive electrical properties of biological systems: their significance in physiology, biophysics, and biotechnology, Phys. Med. Biol. 22: 933-977.
11. 9. Schwan, H. P. 1963. Determination of biological impedances. In Physical Techniques in Biological Research. Vol. 6, p. 123-406. Academic Press. New York.
12. 10. Schwan, H. P. 1992. Linear and nonlinear electrode polarization and biological materials. Ann. Biomed. Eng. 20: 269-288.
13. 11. Rajewsky, B. 1938. Ergebnisse der Biophysikalischen Forschung. Vol. 1. Thieme. Leipzig. Perhaps the first detailed text dealing with frequency-dependent properties of tissues and a review of the state of the art at the time.
14. 12. Schwan, H. P. 1958. Biophysics of diathermy. In Therapeutic Heat. Second edition, chapter 3, p. 63-125. Liecht Pub. New Haven, Connecticut.
15. 13. Schwan, H. P. 1986. Research on biological effects of nonionizing radiations: contributions to biological properties, field interactions, and dosimetry. D'Arsonval Medal Lect., Bioelectromagnetic Soc., Bioelectromagnetics 7; 113-128.
16. 14. Arnold, W. M., H. P. Schwan & U. Zimmermans. 1987. Surface conductance and other properties of latex particles measured by electrorotation. J. Phys. Chem. 91: 5093-5098.
17. 15. Giaever, I. & C. R. Keese. 1986. Use of electric fields to monitor the dynamical aspect of cell behavior in tissue culture. IEEE Trans. Biomed. Eng. 33(No. 3): 242-247.
18. 16. Kasaphasioglu, B., P. J. Hesketh, W. C. Hanly, G. J. Maclay & E. N. Esfahani. 1993. A novel ultra-thin film glucose sensor. Sens. Actuators 14: 749-751.
19. 17. Hardeman, S., T. H. Nelson, D. Beirne, M. De Silva, P. J. Hesketh, G. J. Maclay & S. M. Gendel. 1995. Sensitivity of novel ultrathin platinum film immumosensors to buffer ionic strength. Sen. Actuators B24-25: 98-102.
20. 18. De Silva, M., Y. U. Zhang, P. J. Hesketh, G. J. Maclay, S. Gendel & J. R. Stetter. 1995. A novel biosensor for staphylococcal enterotoxin. Biosen. Bioelectronics 10: 675-682.
21. 19. Schwan, H. 1948. Sedimentation determinations by electrical resistance measurement. Kolloid-Z. III: 53.
22. 20. Velick, S. & M. Gorin. 1940. The electrical conductance of suspensions of ellipsoids and its relation to the study of avian erythrocytes. J. Gen. Physiol. 23: 753-771.
23. 21. Arnold, W. M. & U. Zimmermann. 1982. Rotation of an isolated cell in a rotating electric field. Naturwissenschaften 69: 297.
24. 22. Kaler, K. V. I. S. & T. B. Jones. 1990. Dielectrophoretic spectra of single cells determined by feedback-controlled levitation. Biophys. J. 57: 173-182.
25. 23. Fuhr, G., T. H. Schnelle, R. Hagedorn & S. G. Shirley. 1995. Dielectrophoretic field cages: technique for cell, virus, and molecule handling. Cell. Eng. 1: 47-57.
26. 24. Fuhr, G., W. P. Arnold, R. Hagedorn, T. Mueller, W. Benecke, B. Wagner & U. Zimmermann. 1992. Levitation, holding, and rotation of cells within traps made by high-frequency fields. Biochim. Biophys. Acta 1108: 215-223.
27. 25. Gimsa, J., B. Prueger, P. Erpmann & E. Donath. 1995. Electrorotation of particles measured by dynamic light scattering - a new dielectric spectroscopy technique. Colloids Surf. A98: 243-249.
28. 26. Schwan, H. P. & L. D. Sher. 1969. Electrostatic field induced forces and their biological implications. In Dielectrophoretic and Electrophoretic Deposition, p. 107-126. The Electrochemical Society. New York.
29. 27. Chiabrera, A., C. Nicolini & H. P. Schwan, Eds. 1984. Interactions between Electromagnetic Fields and Cells, p. 1-18. Plenum. New York. The theory of field-induced force effects is presented by F. Sauer in two articles and experimental data are presented in an article by Schwan.
30. 28. Foster, K. R., F. A. Sauer & H. P. Schwan. 1992. Electrorotation and levitation of cells and colloidal particles. Biophys. J. 63: 180-190.