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City-Bus Route Rationalisation and NMT Plan for Belagavi Using Student-Built GTFS and QGIS

  • 12 slides
  • 15 viva questions
  • 6 modules
  • No code needed

@belagavi-city-bus-route-rationalisation-nmt-planUpdated Oct 2026

A B.Plan thesis that rides every route, counts every boarding and then asks why three buses follow the same road

B.Plan, Transport Planning · Sem 8 (B.Plan) / 4 (M.Plan) · Intermediate · 20 weeks · Solo

More info
Level
Intermediate · 20 weeks · Solo
Relevant for
All India
Common at
ITPI / AICTE model curriculum, School of Planning and Architecture, New Delhi, CEPT University
Syllabus
ITPI ITPI / AICTE model · Planning Thesis (individual; report + drawings + jury) · Semester 8 (B.Plan) / 4 (M.Plan)
Tech stack
  • QGIS
  • GTFS (built from field data)
  • Excel / SPSS
  • AutoCAD (street sections)
  • GPS tracking app
  • Boarding–alighting and OD survey sheets
  • Walkability audit checklist
  • Census 2011 data
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  1. Pinned

    1 min

    Overview

    This B.Plan thesis rationalises the city-bus route network of Belagavi and prepares a non-motorised transport (NMT) plan for the streets that lead to its busiest stops. Like many tier-2 cities, Belagavi's city services have grown route by route over decades: several routes overlap along the same central corridors, some newer residential areas have no service within walking distance, and passengers reach stops on streets without continuous footpaths or safe crossings.

    The study starts from the ground. The student builds an inventory of stops, rides each selected route with a GPS app to trace alignments and running times, and conducts boarding–alighting counts and a short origin–destination survey on board. The field data is converted into a simple GTFS feed (stops, routes, trips, stop times, shapes) that loads into QGIS, where the network is analysed for coverage (population within walking distance of stops using Census 2011 data), route overlap, route directness and load profiles.

    The thesis then proposes a rationalised network — trunk and feeder routes, merged overlapping routes, new services for uncovered areas and revised frequencies — measured against the Ministry of Housing and Urban Affairs' Service Level Benchmarks for Urban Transport and the National Urban Transport Policy. An NMT plan follows, based on a walkability audit using IRC:103 pedestrian guidelines, with footpath, crossing and cycle improvements around key stops. Deliverables are a report, map set and street sections for the jury.

    Syllabus alignment

    ITPI · ITPI / AICTE model

    Planning Thesis (individual; report + drawings + jury) · Semester 8 (B.Plan) / 4 (M.Plan)

    Subjects this project applies
    • Transport Planning and Traffic Engineering
    • Planning Studio (area / city plan)
    • Planning Techniques and Surveys
    • GIS for Planning (QGIS / ArcGIS)
    • Quantitative Methods (Excel / SPSS)
    • Urban Infrastructure and Services
    How it is evaluated

    Team: thesis individual; studios in groups

    1 min read · 15 viva questions

  2. 2 min

    Synopsis

    Abstract

    City-bus networks in Indian tier-2 cities are often a patchwork of historical routes, with heavy overlap in the centre and gaps at the growing edge. Poor walking conditions around stops further reduce bus use. This thesis collects primary data on selected Belagavi city routes, builds a GTFS feed, analyses coverage, overlap, directness and loads in QGIS, and proposes a rationalised route network together with a pedestrian and cycling plan for the main stop catchments.

    Introduction

    Belagavi is a growing district headquarters with a historic core, cantonment areas, educational institutions and industrial estates. City services are operated by the state road transport corporation; the thesis treats operations data as unavailable and relies on the student's own surveys, which is the realistic situation for most planning students.

    Literature review and gap

    Route rationalisation is well established in transit planning literature and practice — trunk-and-feeder restructuring, removal of duplicate routes, and frequency-based network design. Indian guidance comes through the National Urban Transport Policy, Comprehensive Mobility Plan toolkits and the Service Level Benchmarks, which define indicators such as coverage, frequency and walkability. Large-city studies often use operator GTFS data, which smaller cities rarely publish. This thesis shows how a planning student can build that data from field surveys and still perform a rigorous network analysis.

    Existing vs proposed approach

    • Existing: routes added incrementally, heavy overlap on central roads, uncovered new layouts, irregular frequencies, unmarked stops, discontinuous footpaths and unsafe crossings near stops.
    • Proposed: a structured network with trunk routes on main corridors and feeders into growing areas, merged duplicate routes, clear frequencies, upgraded stops and a connected pedestrian and cycle network within 500 m of key stops.

    Feasibility

    • Technical: QGIS and GTFS are open standards and tools; data collection needs a smartphone GPS app and survey sheets.
    • Operational: the proposal reuses existing fleet and depots, reallocating buses from overlapping to underserved routes.
    • Financial: NMT measures are low-cost street works that can be phased through city budgets.
  3. 1 min

    Problem statement

    Belagavi's city-bus network has evolved without periodic restructuring. Several routes run along the same central corridors while newer residential areas on the city's edge lack service within walking distance. Frequencies are irregular, stops are poorly defined, and the streets leading to stops often lack continuous footpaths, shade and safe crossings. As a result, buses carry uneven loads, some routes run nearly empty while others are overcrowded, and residents shift to two-wheelers and shared autos.

    Planners and the operator also lack structured data: there is no public GTFS feed or recent route-level ridership study. The problem this thesis addresses is: how can the city's bus routes be rationalised, using primary data collected and structured by the planner, to improve coverage, reduce wasteful overlap and match service to demand, and how should the pedestrian and cycling environment around key stops be improved so that people can reach the buses safely?

  4. 1 min

    Objectives & scope

    1. 01Build an inventory of stops and trace alignments and running times of selected city-bus routes using GPS.
    2. 02Conduct boarding–alighting counts and an on-board origin–destination survey on the selected routes.
    3. 03Convert field data into a GTFS feed and analyse the network in QGIS for coverage, overlap, directness and load profiles.
    4. 04Assess the network against the Service Level Benchmarks for Urban Transport.
    5. 05Propose a rationalised trunk-and-feeder network with revised frequencies and new services for uncovered areas.
    6. 06Audit walkability around key stops using IRC:103 guidance and prepare an NMT improvement plan with street sections.

    Scope

    In scope

    • Eight to twelve city-bus routes serving the core and the growing edge of the city.
    • Primary surveys: stop inventory, GPS route tracing, boarding–alighting counts, on-board OD survey, walkability audit.
    • GTFS feed of surveyed routes and network analysis in QGIS.
    • Route rationalisation proposal and NMT plan for catchments of five to eight key stops.

    Out of scope

    • Full-city travel-demand modelling (four-stage model).
    • Fleet procurement, depot planning and fare policy.
    • Detailed engineering drawings of junctions.
    • Intercity and mofussil services.
  5. 1 min

    Methodology

    The thesis uses a survey-based quantitative planning method over about 20 weeks.

    StageWeeksWorkOutput
    1. Literature & policy1–3NUTP, SLB for urban transport, CMP toolkit, route rationalisation methods, IRC:103Literature review, indicator list
    2. Reconnaissance & route selection4Ride main routes, identify corridors and growth areasSelected routes
    3. Stop inventory & GPS tracing5–7Record stop locations, facilities and alignments; running times by time of dayStop and route layers
    4. Ridership surveys8–10Boarding–alighting counts on peak and off-peak trips; on-board OD surveyLoad profiles, OD matrix
    5. GTFS & network analysis11–13Build GTFS files, load in QGIS, compute coverage, overlap, directnessAnalysis maps and tables
    6. Walkability audit14–15Audit footpaths, crossings, shade, lighting, obstructions around key stopsAudit scores and maps
    7. Proposals16–18Rationalised network, frequencies, NMT plan, street sectionsProposal maps
    8. Report & jury19–20Report, map set, presentationFinal submission

    Methods: primary surveys (inventory, GPS tracing, counts, OD interviews without personal identifiers), GTFS data structuring, GIS network and buffer analysis, descriptive statistics, benchmark comparison and walkability audit scoring.

  6. 1 min

    Architecture & tech stack

    • QGIS
    • GTFS (built from field data)
    • Excel / SPSS
    • AutoCAD (street sections)
    • GPS tracking app
    • Boarding–alighting and OD survey sheets
    • Walkability audit checklist
    • Census 2011 data

    Study design used in the report:

    flowchart TD
      A[Policy and literature: NUTP, SLB, CMP toolkit, IRC:103] --> B[Indicator framework]
      C[Stop inventory] --> F[GTFS feed: stops, routes, trips, stop_times, shapes]
      D[GPS route tracing and running times] --> F
      E[Boarding-alighting counts and OD survey] --> G[Load profiles and OD matrix]
      F --> H[QGIS network analysis]
      I[Census 2011 population by ward] --> H
      H --> J[Coverage, overlap, directness]
      G --> K[Demand vs supply comparison]
      J --> K
      B --> L[Benchmark assessment]
      K --> L
      L --> M[Rationalised trunk and feeder network]
      N[Walkability audit around key stops] --> O[NMT plan and street sections]
      M --> P[Report, map set, jury]
      O --> P

    Network indicators

    IndicatorDefinition used
    Coverageshare of population within 500 m walking distance of a stop
    Route overlapshare of a route's length shared with other routes
    Directnessroute length ÷ shortest-path distance between terminals
    Load factorpassengers on board ÷ seating capacity, by segment
    Frequencybuses per hour in peak and off-peak

    GTFS files built

    stops.txt, routes.txt, trips.txt, stop_times.txt, calendar.txt and shapes.txt, created in a spreadsheet from survey data and validated before loading into QGIS.

  7. 6 modules

    Modules

    • Policy Review & Indicator Framework

      Reviews the National Urban Transport Policy, MoHUA Service Level Benchmarks, CMP guidance and IRC:103 pedestrian guidelines, and fixes the indicators and targets used to assess the bus network and walking environment.

    • Stop Inventory & Route Tracing

      Records every stop on the selected routes with location, shelter, signage and footpath access, and traces each route with a GPS app to capture alignment and running times across the day.

    • Ridership Surveys

      Counts boardings and alightings at every stop on peak and off-peak trips, and conducts short on-board origin–destination interviews without personal identifiers to build load profiles and an OD matrix.

    • GTFS Feed & Network Analysis

      Converts field data into GTFS files, loads them into QGIS, and measures population coverage using Census 2011 data, route overlap, route directness and segment load factors.

    • Route Rationalisation

      Proposes trunk and feeder routes, merges duplicate routes, adds services to uncovered areas and sets frequencies, then re-measures coverage and overlap to show the improvement.

    • NMT Plan

      Audits footpaths, crossings, shade, lighting and obstructions within 500 m of key stops, scores walkability, and proposes pedestrian and cycle improvements with street sections and phasing.

  8. Locked

    Presentation

    12 slides with speaker notes. The outline below is free; the bullets, notes and the generated .pptx unlock with the project.

    1. Belagavi City-Bus Rationalisation & NMT Plan
    2. Need for the study
    3. Aim & objectives
    4. Policy framework
    5. Surveys
    6. GTFS & QGIS
    7. Coverage & overlap
    8. Load profiles & OD
    9. Benchmark assessment
    10. Rationalised network
    11. NMT plan
    12. Conclusion

    Bullets, speaker notes and the .pptx download unlock with the project.

    Presentation is locked: 12 slides, Speaker notes, .pptx download.

  9. 1 min

    Future scope

    • Share the GTFS feed with the city so journey-planning apps can show city-bus routes.
    • Extend the analysis to the full network and add a simple demand model.
    • Evaluate the proposal with a before-and-after ridership survey if implemented.
    • Plan feeder integration with the railway station and intercity bus stand.
    • Develop a public bicycle-sharing feasibility study around educational institutions.
  10. 8 sources

    References

    1. National Urban Transport Policy — Ministry of Housing and Urban Affairs
    2. Service Level Benchmarks for Urban Transport — Ministry of Urban Development (now MoHUA)
    3. IRC:103 — Guidelines for Pedestrian Facilities, Indian Roads Congress
    4. Comprehensive Mobility Plan toolkit — Ministry of Urban Development (now MoHUA)
    5. GTFS Schedule reference
    6. QGIS User Guide
    7. Census of India 2011
    8. Walker, J. — Human Transit: How Clearer Thinking about Public Transit Can Enrich Our Communities and Our Lives

    Cite this bundle

    OnlyProjects. (2026). City-Bus Route Rationalisation and NMT Plan for Belagavi Using Student-Built GTFS and QGIS: B.Plan Transport Planning project bundle [Educational resource]. https://onlyprojects.online/projects/bplan-transport-belagavi-city-bus-route-rationalisation-nmt-plan

Slides, diagrams & files

12 slides. Titles are free; bullets, speaker notes and the .pptx unlock with the project.

  1. SLIDE 1

    Belagavi City-Bus Rationalisation & NMT Plan

  2. SLIDE 2

    Need for the study

  3. SLIDE 3

    Aim & objectives

  4. SLIDE 4

    Policy framework

  5. SLIDE 5

    Surveys

  6. SLIDE 6

    GTFS & QGIS

  7. SLIDE 7

    Coverage & overlap

  8. SLIDE 8

    Load profiles & OD

  9. SLIDE 9

    Benchmark assessment

  10. SLIDE 10

    Rationalised network

  11. SLIDE 11

    NMT plan

  12. SLIDE 12

    Conclusion

Architecture diagram

1
flowchart TD
  A[Policy and literature: NUTP, SLB, CMP toolkit, IRC:103] --> B[Indicator framework]
  C[Stop inventory] --> F[GTFS feed: stops, routes, trips, stop_times, shapes]
  D[GPS route tracing and running times] --> F
  E[Boarding-alighting counts and OD survey] --> G[Load profiles and OD matrix]
  F --> H[QGIS network analysis]
  I[Census 2011 population by ward] --> H
  H --> J[Coverage, overlap, directness]
  G --> K[Demand vs supply comparison]
  J --> K
  B --> L[Benchmark assessment]
  K --> L
  L --> M[Rationalised trunk and feeder network]
  N[Walkability audit around key stops] --> O[NMT plan and street sections]
  M --> P[Report, map set, jury]
  O --> P

Files

Viva questions & answers

3 of 15 questions free. Explain each answer in your own words before you move on.

  1. Concept

    What is route rationalisation?

    It is the process of restructuring a bus network so that routes match current demand: removing or merging duplicate routes, straightening indirect ones, adding service to uncovered areas and setting frequencies based on loads, usually using the same fleet more efficiently.

  2. Concept

    What is GTFS and why did you use it?

    GTFS, the General Transit Feed Specification, is a standard set of text files describing stops, routes, trips and timetables. Building one from field data gave me a structured, reusable dataset that QGIS can analyse and that the city could share with journey-planning apps.

  3. Concept

    What is a trunk-and-feeder network?

    It is a structure where high-frequency trunk routes run along main corridors with strong demand, and shorter feeder routes collect passengers from residential areas and bring them to trunk stops, instead of every route running all the way to the centre.

+12 more questions

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For educational purposes only. Use this bundle to understand how the project works, then build and write your own. Submitting it verbatim is between you, your conscience and your external examiner.