INTRODUCTIONIn manufacturing industries the high-quality products are obtained by using conventional and non-conventional manufacturing processes, which make changes in size, shape, dimensions and surface quality of the product. Various non-conventional manufacturing methods are applied to machine the brittle and hard materials like glass, ceramics and composites materials [1]. The glass is one of the highest brittle and hard materials, hence it is a challenging task to machine it with conventional and non-conventional manufacturing processes. There are main three categories of glass material i.e. sodalime glass, phosphate glass and borosilicate glass. It is widely used in different fields due to its wide range of excellent properties such as corrosion resistance, high chemical resistance, optical transparency, biocompatibility, attractive appearance, superior optical, high specific strength, heat-resisting capacity, excellent mechanical hardness, excellent anodic bonding, high electrical resistivity, temperature stability, non-porosity, various reflective indices, homogeneity, durability, hydrophilicity and good surface quality. The applications of glass material is production of mirrors, photo-masks, data storage disks, microscopic slides, miniaturization of microfluidic devices for chemical and biological micro total analysis systems, touch screens, mechanical inertial sensors, oxide fuel cells and micro-pumps filters, printed circuit substrates, photographic plates, wafers, chemical apparatus, micro gas turbines, micro-electromechanical systems, mass spectrometry, microcapillary, electrophoresis and optomechatronic systems, optical telecommunication, optical The electrochemical discharge machining is integrated by electro-discharge and electro-chemical manufacturing technology. The sodalime glass is widely used in various fields such as biomedical, optical and industrial industries. Hence, in present study the electrochemical discharge drilling process is applied on soda-lime glass material to find out the material removal rate. The Taguchi method L27 orthogonal array is used for present investigation. The input process parameters are taken as voltage, rotation and electrolyte concentration whereas output response is considered as material removal rate. From this analysis, it is found that voltage is the most dominant parameter for material removal rate followed by electrolyte concentration and rotation for soda-lime glass.