PLANNING FOR EFFICIENT LAST MILE CONNECTIVITY: A CASE STUDY OF HYDERABAD METRO

Abstract

The Hyderabad Metro Rail (HMR), a 69.2 km elevated system developed under a Public-Private Partnership, stands as a landmark of urban infrastructure in India. However, since its Phase-1 operationalization between 2017 and 2019, the network has consistently operated at less than one-third of its projected 1.5 million daily passenger capacity. This study argues that the persistent ridership gap is a direct result of a systemic last-mile connectivity deficit. By focusing on the critical interface between the station and the commuter's origin or destination, this research investigates the physical, environmental, and institutional barriers preventing optimal transit utilization across three corridors and 57 stations. Adopting a mixed-methods spatial research design, the thesis evaluates six representative case-study nodes: Ameerpet, Raidurg, LB Nagar, MGBS, Miyapur, and JBS Parade Ground. The analytical framework integrates GIS-based network isochrone analysis to determine actual accessibility and spectral remote sensing using Sentinel-2 (2024) imagery to derive NDVI and NDBI indices. This spatial data is supplemented by a primary commuter perception survey ($N = 90$) and structured institutional interviews with stakeholders from HMR, TSRTC, and GHMC. The analysis reveals a significant disparity in accessibility; while Euclidean models suggest higher coverage, only 38% of the population resides within a true network based 500-metre walking catchment. Furthermore, the "Street Morphology Friction Index" highlights severe navigational challenges, while 72% of stations exhibit acute NDVI deficits, contributing to Urban Heat Island intensities 7–9°C above peripheral baselines. Crucially, the research identifies a "Governance Blame Cycle" between transport and municipal authorities that effectively stalls integrated infrastructural remediation. To address this, a "Last-Mile Connectivity Score" (LMCS) composite framework was developed to quantify station performance across infrastructure, safety, and digital integration. Based on these scores, a phased implementation roadmap is proposed, beginning with short-term "Quick Wins" (0–3 years) such as LED luminous paths, modular paratransit stands, and "Green Ribbon" shade pilots. Medium-term structural upgrades (3–7 years) focus on transverse feeder loops, micro-mobility hubs, and the MGBS covered walkway, while long-term transformation (7–10 years) mandates the statutory establishment of a Unified Metropolitan Transport Authority (UMTA), "One-City One-Card" MaaS platforms, and 800m TOD zoning. Ultimately, this research contributes to urban planning literature by formalizing the concept of the "Spatial Infinitesimal" in transit nodes and developing the NDVI × NDBI dual-index diagnostic framework for walkability. It provides a systematic mapping of institutional barriers, offering a replicable model for improving transit oriented development in rapidly urbanizing Global South contexts. By bridging the gap between high-capacity transit and the pedestrian environment, these proposals offer a strategic path toward achieving the designed socio-economic potential of the Hyderabad Metro Rail.