Multiferroic properties of orthorhombically distorted perovskite rare-earth chromites, such as HoCrO 3 , are being investigated extensively in recent years. In the present work, we report on the effect of Fe substitution on the magnetic properties in HoCrO 3 thin films. Thin films of nominal compositions with HoCrO 3 and HoCr 0.7 Fe 0.3 O 3 were fabricated via a solution route on platinized silicon substrates. Structural properties of the films were characterized by Xray diffraction and Raman spectroscopy. The surface morphology and cross-sections of the films were examined using scanning electron microscopy. Optical band gaps of these films are found to be 3.45 eV and 3.39 eV, respectively. The magnetization measurement shows that the Néel temperatures (where Cr 3+ orders) for the HoCrO 3 and HoCr 0.7 Fe 0.3 O 3 films are 134 and 148 K, respectively. In a magnetic field of 2 T, the maximum entropy change and relative cooling power, two parameters to evaluate the magnetocaloric properties of a material, were 0.813 J/kg K at 11 K and 21.1 J/kg for HoCrO 3 film, in comparison with 0.748 J/kg K at 15 K and 26.8 J/kg for HoCr 0.7 Fe 0.3 O 3 film. To our knowledge, this is the first work exploring the band gap and magnetocaloric properties of rare-earth chromite thin films. These findings should inspire the development of rare-earth chromite thin films for temperature control of nanoscale electronic devices and sensors in the low temperature region (<30 K).