Control of Turing structures by periodic illumination AK Horváth, M Dolnik, AP Munuzuri, AM Zhabotinsky, IR Epstein Physical review letters 83 (15), 2950, 1999 | 115 | 1999 |
Stability of gamma-valerolactone under neutral, acidic, and basic conditions CYY Wong, AWT Choi, MY Lui, B Fridrich, AK Horváth, LT Mika, ... Structural Chemistry 28, 423-429, 2017 | 78 | 2017 |
Kinetics and mechanism of the decomposition of chlorous acid AK Horvath, I Nagypal, G Peintler, IR Epstein, K Kustin The Journal of Physical Chemistry A 107 (36), 6966-6973, 2003 | 69 | 2003 |
Recent developments in the chemistry of thiourea oxides SV Makarov, AK Horváth, R Silaghi‐Dumitrescu, Q Gao Chemistry–A European Journal 20 (44), 14164-14176, 2014 | 61 | 2014 |
Classification of clock reactions AK Horváth, I Nagypál ChemPhysChem 16 (3), 588-594, 2015 | 58 | 2015 |
Three autocatalysts and self-inhibition in a single reaction: a detailed mechanism of the chlorite− tetrathionate reaction AK Horváth, I Nagypál, IR Epstein Inorganic chemistry 45 (24), 9877-9883, 2006 | 58 | 2006 |
Pattern formation in the iodate–sulfite–thiosulfate reaction–diffusion system H Liu, JA Pojman, Y Zhao, C Pan, J Zheng, L Yuan, AK Horváth, Q Gao Physical Chemistry Chemical Physics 14 (1), 131-137, 2012 | 49 | 2012 |
Kinetics and mechanism of the decomposition of tetrathionate ion in alkaline medium D Varga, AK Horváth Inorganic chemistry 46 (18), 7654-7661, 2007 | 48 | 2007 |
Sodium dithionite, rongalite and thiourea oxides: chemistry and application SV Makarov, AK Horváth, R Silaghi-Dumitrescu, Q Gao World Scientific, 2016 | 46 | 2016 |
Effect of chloride ion on the kinetics and mechanism of the reaction between chlorite ion and hypochlorous acid B Kormányos, I Nagypál, G Peintler, AK Horváth Inorganic chemistry 47 (17), 7914-7920, 2008 | 46 | 2008 |
Kinetics and mechanism of the reaction between thiosulfate and chlorine dioxide AK Horváth, I Nagypal The Journal of Physical Chemistry A 102 (37), 7267-7272, 1998 | 43 | 1998 |
Autocatalysis and self-inhibition: coupled kinetic phenomena in the chlorite− tetrathionate reaction AK Horváth, I Nagypál, G Peintler, IR Epstein Journal of the American Chemical Society 126 (20), 6246-6247, 2004 | 42 | 2004 |
Clarifying the equilibrium speciation of periodate ions in aqueous medium L Valkai, G Peintler, AK Horváth Inorganic Chemistry 56 (18), 11417-11425, 2017 | 40 | 2017 |
Kinetics and mechanism of the oxidation of sulfite by chlorine dioxide in a slightly acidic medium AK Horváth, I Nagypál The Journal of Physical Chemistry A 110 (14), 4753-4758, 2006 | 36 | 2006 |
Kinetics and mechanism of the chlorine dioxide-tetrathionate reaction AK Horvath, I Nagypál, IR Epstein The Journal of Physical Chemistry A 107 (47), 10063-10068, 2003 | 34 | 2003 |
Improved calibration and use of stopped-flow instruments G Peintler, A Nagy, AK Horváth, T Körtvélyesi, I Nagypál Physical Chemistry Chemical Physics 2 (11), 2575-2586, 2000 | 32 | 2000 |
Oscillatory photochemical decomposition of tetrathionate ion AK Horváth, I Nagypál, IR Epstein Journal of the American Chemical Society 124 (37), 10956-10957, 2002 | 31 | 2002 |
Homogeneous Pd-catalyzed Heck coupling in γ-valerolactone as a green reaction medium: a catalytic, kinetic, and computational study D Fodor, T Kégl, JM Tukacs, AK Horváth, LT Mika ACS Sustainable Chemistry & Engineering 8 (26), 9926-9936, 2020 | 28 | 2020 |
Kinetics and mechanism of the reaction between hypochlorous acid and tetrathionate ion AK Horváth, I Nagypál International Journal of Chemical Kinetics 32 (7), 395-402, 2000 | 27 | 2000 |
Kinetics of photoresponse of the chlorine dioxide-iodine-malonic acid reaction AK Horváth, M Dolnik, AM Zhabotinsky, IR Epstein The Journal of Physical Chemistry A 104 (24), 5766-5769, 2000 | 25 | 2000 |