This paper discusses the transformative role Artificial Intelligence (AI) is anticipated to play in the film industry, specifically concerning its capacity to enhance and redefine the parameters of cinematic realism. As the integration of AI in the cinematic field gains momentum, an exploration of its implications on the perceived realism in film is essential. The paper first outlines the historical trajectory of realism in cinema, mapping its evolution and its core principles with respect to technological advances; we then introduce AI as a disruptive technology poised to reshape this trajectory. The focus of the paper lies in examining how AI, through its advanced image recognition and synthesis, data analysis, and deep learning capabilities, has the potential to revolutionise traditional methods of film production, post-production, and distribution, significantly impacting the authenticity of cinematic narratives. The paper then discusses potential drawbacks, such as the risk of over-reliance on technology and the ethical implications of AI utilisation, offering a balanced perspective on this emergent phenomenon. The paper aims to inform film scholars, industry professionals, and enthusiasts about the profound transformations AI is set to bring, propelling the discussion towards the future of film in the era of artificial intelligence.

In this paper, the performance of Cu-(In,Ga)-S2 (CIGS2) solar cells with adjusting composite CGI-ratio absorber is explored and compared through an improved three-stage co-evaporation technique. For co-evaporating CIGS2 absorber as a less toxic alternative to Cd-containing film, we analyse the effect of the CGI-ratio stoichiometry and crystallinity, and explore its opto-electric sensing characteristic of individual solar cell. The results of this research signify the potential of high-performance CIGS2-absorption solar cells for photovoltaic (PV)-module industrial applications. For the optimal CIGS2-absorption film (CGI=0.95), the Raman main-phase signal (A1) falls at 291 cm-1, which is excited by the 532-nm line of Ar+-laser. Using photo-luminescence (PL) spectroscopy, the corresponding main-peak bandgaps measured is 1.59 eV at the same CGI-ratio film. Meanwhile, the best conversion efficiency (=3.212%) and the average external quantum efficiency (EQE=51.1% in the visible-wavelength region) of photo-electric properties were achieved for the developed CIGS2-solar cells (CGI=0.95). The discoveries of this CIGS2-absorption PV research provide a new scientific understanding of solar cells. Moreover, this research undeniably contributes to a major advancement towards practical PV-module applications and can help more to build an eco-friendly community.