A Si-charge-coupled device (CCD), camera-based, near-infrared imaging system is demonstrated on Ni/yttria-stabilized zirconia (YSZ) fragments and the anodes of working solid oxide fuel cells (SOFCs). NiO reduction to Ni by H-2 and carbon deposition lead to the fragment cooling by 5+/-2 degrees C and 16+/-1 degrees C, respectively. When air is flowed over the fragments, the temperature rises 24+/-1 degrees C as carbon and Ni are oxidized. In an operational SOFC, the decrease in temperature with carbon deposition is only 4.0+/-0.1 degrees C as the process is moderated by the presence of oxides and water. Electrochemical oxidation of carbon deposits results in a Delta T of +2.2+/-0.2 degrees C, demonstrating that electrochemical oxidation is less vigorous than atmospheric oxidation. While the high temperatures of SOFCs are challenging in many respects, they facilitate thermal imaging because their emission overlaps the spectral response of inexpensive Si-CCD cameras. Using Si-CCD cameras has advantages in terms of cost, resolution, and convenience compared to mid-infrared thermal cameras. High spatial (similar to 0.1mm) and temperature (similar to 0.1 degrees C) resolutions are achieved in this system. This approach provides a convenient and effective analytical technique for investigating the effects of anode chemistry in operating SOFCs. Published by Elsevier B.V.