Temperature jump iodine laser

This value has been supported by later work (a) with the microwave temperature-jump technique (G. Ertl and H. Gerischer, Z. Elektrochem. 65 (1961) 629 Z. Elektrochem. 66 (1962) 560) and (b) by infrared iodine-laser initiation (D.M. Goodall, R.C. Greenhow, B. Knighf J.F. Holzwarth and W. Frisch, in W.J. Gettins and E. Wyn-Jones (Eds.), Techniques and Applications of Fast Reactions in Solution, Rei-del, Dordrecht, 1979, p. 567) see, also (c) W.J. Albery, Prog. React. KineL 4 (1%7) 353. 

Alexandridis, R, Holzwarth, J. E, and Hatton, T. A. (1993). Interfacial dynamics of water-in-oil microemulsion droplets Determination of the bending modulus using iodine laser temperature jump. Langmuir 9, 2045-2052. 

L.M.M. Nazario, J.P.S.G. Crespo, J.F. Holzwarth, and T.A. Hatton, Dynamics of AOT and AOT/nonionic cosurfactant microemulsions. An iodine-laser temperature jump study, 2000, Langmuir 16, 5892-5899. 

Groll, R., Bottcher, A., Jiiger, J. and Holzwarth, J. F., Temperature dependent intermediate structures during the main phase transition of dimyristoyl phosphatidylcholine vesicles - a combined iodine laser-temperature jump and time resolved cryo-electron microscopy study, Biophys. Chem., 58, 53-65 (1996). 

Eck V./Josef Holzwarth, A. Genz Iodine Laser Temperature J.F. Holzwarth, V. Eck, A. Genz, Iodine Laser Temperature Jump from Picoseconds to Seconds Relaxation Processes of Phospholipid Bilayers. In Bayley, P.M./R. Dale (Eds.), Spectroscopy and Dynamics of Biological Systems, London 1984, p. 351-377. 

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