References
[1] E.T. Chouchani, L. Kazak, M.P. Jedrychowski, G.Z. Lu, B.K. Erickson, J. Szpyt, K.A.
Pierce, D. Laznik-Bogoslavski, R. Vetrivelan, C.B. Clish, Mitochondrial ROS regulate
thermogenic energy expenditure and sulfenylation of UCP1, Nature, 532 (2016) 112.
[2] S. Di Meo, S. Iossa, P. Venditti, Skeletal muscle insulin resistance: role of mitochondria and
other ROS sources, Journal of Endocrinology, 233 (2017) R15-R42.
[3] Z. Liang, T.H. Tsoi, C.F. Chan, L. Dai, Y. Wu, G. Du, L. Zhu, C.S. Lee, W.T. Wong, G.L.
Law, K.L. Wong, A smart "off-on" gate for the in situ detection of hydrogen sulphide with
Cu(ii)-assisted europium emission, Chem Sci, 7 (2016) 2151-2156.
[4] D. Vara, G. Pula, Reactive oxygen species: physiological roles in the regulation of vascular
cells, Current molecular medicine, 14 (2014) 1103-1125.
[5] G. Wang, Chloride flux in phagocytes, Immunological reviews, 273 (2016) 219-231.
[6] A. Strzepa, K.A. Pritchard, B.N. Dittel, Myeloperoxidase: A new player in autoimmunity,
Cellular immunology, 317 (2017) 1-8.
[7] C.L.-L. Chiang, L.E. Kandalaft, J. Tanyi, A.R. Hagemann, G.T. Motz, N. Svoronos, K.
Montone, G.M. Mantia-Smaldone, L. Smith, H.L. Nisenbaum, A dendritic cell vaccine pulsed
with autologous hypochlorous acid-oxidized ovarian cancer lysate primes effective broad
antitumor immunity: from bench to bedside, Clinical cancer research, 19 (2013) 4801-4815.
[8] T. Fukuyama, B. Martel, K. Linder, S. Ehling, J. Ganchingco, W. Bäumer, Hypochlorous
acid is antipruritic and anti‐inflammatory in a mouse model of atopic dermatitis, Clinical &
Experimental Allergy, 48 (2018) 78-88.
[9] M. Boncler, B. Kehrel, R. Szewczyk, E. Stec-Martyna, R. Bednarek, M. Brodde, C. Watala,
Oxidation of C-reactive protein by hypochlorous acid leads to the formation of potent platelet
activator, International journal of biological macromolecules, 107 (2018) 2701-2714.
[10] R. Jeelani, D. Maitra, C. Chatzicharalampous, S. Najeemuddin, R.T. Morris, H.M. Abu‐
Soud, Melatonin prevents hypochlorous acid ‐ mediated cyanocobalamin destruction and
cyanogen chloride generation, Journal of pineal research, 64 (2018) e12463.
[11] I.Q. Tantry, S. Waris, S. Habib, R.H. Khan, R. Mahmood, A. Ali, Hypochlorous acid
induced structural and conformational modifications in human DNA: A multi-spectroscopic
study, International journal of biological macromolecules, 106 (2018) 551-558.
[12] H. Lin, B.S. Levison, J.A. Buffa, Y. Huang, X. Fu, Z. Wang, V. Gogonea, J.A. DiDonato,
S.L. Hazen, Myeloperoxidase-mediated protein lysine oxidation generates 2-aminoadipic acid
and lysine nitrile in vivo, Free Radical Biology and Medicine, 104 (2017) 20-31.
[13] H. Feng, Z. Zhang, Q. Meng, H. Jia, Y. Wang, R. Zhang, Rapid Response Fluorescence
Probe Enabled In Vivo Diagnosis and Assessing Treatment Response of Hypochlorous Acid‐
Mediated Rheumatoid Arthritis, Advanced Science, 5 (2018) 1800397.
[14] J. Marcinkiewicz, E. Kontny, Taurine and inflammatory diseases, Amino acids, 46 (2014)
7-20.
[15] E.O. Santos, L.M. Kabeya, A.S. Figueiredo-Rinhel, L.F. Marchi, M.F. Andrade, F. Piatesi,
A.B. Paoliello-Paschoalato, A.E.C. Azzolini, Y.M. Lucisano-Valim, Flavonols modulate the
effector functions of healthy individuals' immune complex-stimulated neutrophils: A therapeutic
perspective for rheumatoid arthritis, International immunopharmacology, 21 (2014) 102-111.