This chapter presents the analysis and design of transfer chutes for belt conveyor systems, with particular emphasis on hood and spoon configurations used to transfer bulk solids between conveyors. Building on fundamental chute theory, the chapter examines conveyor discharge mechanics, bulk solid load profiles, and the development of discharge trajectories as material leaves a belt and interacts with curved impact hoods. Classical mechanics is applied to evaluate belt discharge conditions, minimum belt speeds for lift-off, and the influence of material cohesion and adhesive stresses on carry-back and flow behaviour. Detailed analytical procedures are presented for determining cross-sectional load profiles, trajectory geometry, and hood curvature, supported by worked design examples involving high-capacity mineral handling. The design of spoon chutes for controlled redirection and velocity matching onto receiving belts is also addressed, including wear and flow performance considerations. Finally, the chapter highlights the complementary role of Discrete Element Modelling (DEM) in refining complex three-dimensional transfer designs, while stressing the continued importance of classical analytical foundations for robust and reliable chute performance.