With the growing popularity of electrified transportation across the world, there have been extensive reports of research involving plug-in electric vehicles (PEVs), electric vehicle charging facilities (EVCFs) and their integration to the main electric grid, besides sustainable energy resources for powering these vehicles. This study proffers a power factor corrected level-1 DC public green-charging infrastructure accompanied by an integrated control, for electric light motor vehicles, compliant with recently formulated Indian charging standards. Power factor correction of plug-in electric vehicle charging current, solar photo-voltaic grid integration and charging of energy storage system is achieved using control of bidirectional AC/DC converters. A firmware and user interface for multimode off-board DC charging, with green, fast and semi-fast charging modes are investigated. Intelligent control for fast charging is also presented to reduce its pernicious impact on the grid. The simulation and hardware results verify the prime performance objectives of improving the local power quality and renewable energy utilisation with multimode charging, in the Indian context. The effectiveness of the proposed infrastructure is further demonstrated by a simulated use case, where 30 PEVs are randomly charged, in various modes, at this EVCF during busy commute hours. 2 State-of-the-art This section presents the issues, latest research, and standards, both global and in the Indian context in the area of PEV charging infrastructure and its grid integration. 2.1 Power quality issues due to charging equipment In linear circuits, as voltage and currents are sinusoidal, the power quality issue arises from the displacement power factor. In nonlinear circuits, with non-sinusoidal currents, power quality issues arise from both displacement and distortion power factor [11]. Loads that draw non-sinusoidal current from the sinusoidal voltage source cause harmonics. Battery chargers, typically, are equipped with rectifiers at the input stage that cause current harmonics in the distribution system [12, 13]. Generally, lower priced models of chargers do not handle this requirement effectively. Saber et al. [14] propose a PFC scheme based on unidirectional, current-source active rectifier for charging PEVs. An on-board PFC scheme was also discussed in [15], in which the converters in the PEV are controlled to refine the power quality. However, this increases the complexity and weight of the on-board charger.