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Wilson, G. W., Schomberg, S. (1963) An Investigation of the Constant‐Current Characteristics of Materials Having a Positive Temperature Coefficient of Resistance. Journal of Applied Physics, 34 (10). 3055-3058 doi:10.1063/1.1729119

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Reference TypeJournal (article/letter/editorial)
TitleAn Investigation of the Constant‐Current Characteristics of Materials Having a Positive Temperature Coefficient of Resistance
JournalJournal of Applied Physics
AuthorsWilson, G. W.Author
Schomberg, S.Author
Year1963 (October)Volume34
Issue10
PublisherAIP Publishing
DOIdoi:10.1063/1.1729119Search in ResearchGate
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Mindat Ref. ID4927087Long-form Identifiermindat:1:5:4927087:9
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Full ReferenceWilson, G. W., Schomberg, S. (1963) An Investigation of the Constant‐Current Characteristics of Materials Having a Positive Temperature Coefficient of Resistance. Journal of Applied Physics, 34 (10). 3055-3058 doi:10.1063/1.1729119
Plain TextWilson, G. W., Schomberg, S. (1963) An Investigation of the Constant‐Current Characteristics of Materials Having a Positive Temperature Coefficient of Resistance. Journal of Applied Physics, 34 (10). 3055-3058 doi:10.1063/1.1729119
In(1963, October) Journal of Applied Physics Vol. 34 (10) AIP Publishing

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Al‐Allak, H. M., Brinkman, A. W., Russell, G. J., Woods, J. (1988) The effect of Mn on the positive temperature coefficient of resistance characteristics of donor doped BaTiO3ceramics. Journal of Applied Physics, 63 (9). 4530-4535 doi:10.1063/1.340150
Ohe, Kazuyuki, Naito, Yoshihide (1971) A New Resistor Having An Anomalously Large Positive Temperature Coefficient. Japanese Journal of Applied Physics, 10 (1) 99-108 doi:10.1143/jjap.10.99
(1993) Current limiting by n-type barium titanate ceramics having no positive temperature coefficient in resistance. Materials Research Bulletin, 28 (1) 19-26 doi:10.1016/0025-5408(93)90004-w
Gallego, Marina Martinez, West, Anthony R. (2001) Effect of annealing treatments on positive temperature coefficient of resistance properties of barium titanate ceramics and a new model for the positive temperature coefficient of resistance effect. Journal of Applied Physics, 90 (1). 394-403 doi:10.1063/1.1374476
Otte, H. M., Montague, W. G., Welch, D. O. (1963) X‐Ray Diffractometer Determination of the Thermal Expansion Coefficient of Aluminum near Room Temperature. Journal of Applied Physics, 34 (10). 3149-3150 doi:10.1063/1.1729148
Kolodiazhnyi, T., Petric, A., Johari, G. P. (2001) Models of the current–voltage dependence of BaTiO3 with positive temperature coefficient of resistivity. Journal of Applied Physics, 89 (7). 3939-3946 doi:10.1063/1.1331340
Zhang, Feng, Cao, Zechun (1996) A modified model in positive temperature coefficient of resistance BaTiO3ceramics. Journal of Applied Physics, 79 (5). 2487-2490 doi:10.1063/1.361097
Ito, Kentaro, Fukami, Tatsuo (1989) Positive temperature coefficient of resistance in metal‐semiconductor contacts. Journal of Applied Physics, 65 (5). 1982-1986 doi:10.1063/1.342889
Lo, Gun-Man, Chen, Ying-Chung, Chen, Shih-Hsiung (1995) The Influence of Manganese on Negative Temperature Coefficient Effect of $\bf BaTiO_{3}$ Positive Temperature Coefficient Resistance. Japanese Journal of Applied Physics, 34. 4133-4136 doi:10.1143/jjap.34.4133
Zubair, M. A., Leach, C. (2007) Modeling the resistance-temperature characteristic of a positive temperature coefficient thermistor, using experimentally determined permittivity data. Applied Physics Letters, 91 (8). 82105pp. doi:10.1063/1.2768034
Sinclair, D. C., West, A. R. (1989) Impedance and modulus spectroscopy of semiconducting BaTiO3showing positive temperature coefficient of resistance. Journal of Applied Physics, 66 (8). 3850-3856 doi:10.1063/1.344049
 
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