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| Makkah Metro | |
|---|---|
| Name | Makkah Metro |
| Locale | Makkah, Saudi Arabia |
| Transit type | Rapid transit |
| Lines | 3 (Phase 1) |
| Stations | 49 (Phase 1) |
| Owner | Saudi Railways Organization |
| Operator | Mowsat? |
| Began operation | 2010s |
| System length | 18 km (Phase 1) |
Makkah Metro The Makkah Metro is a rapid transit system serving Mecca, designed to transport pilgrims and residents between the Masjid al-Haram, Mina, Arafat, and surrounding urban districts. Conceived to complement projects like the King Abdulaziz International Airport expansions and the Haramain high-speed railway, the system interlinks with infrastructure such as the Jeddah Metro proposals and the Saudi Vision 2030 urban initiatives. Project planning and contractor selection involved firms with portfolios including Bechtel, Siemens, Alstom, and Bombardier, reflecting global precedents from systems like the Dubai Metro, Doha Metro, and London Underground.
Initial studies for a dedicated rapid transit in Mecca emerged after the early-2000s surge in pilgrim numbers, paralleling large-scale works such as the King Abdullah Economic City and the expansion of King Fahd Complex for the Printing of the Holy Qur'an. Early feasibility reports referenced operational challenges experienced by networks like the Istanbul Metro and the Riyadh Metro planning phases. Announcements by officials associated with the Ministry of Hajj and Umrah and entities comparable to the Saudi Railways Organization set in motion design competitions and environmental assessments, taking cues from mass-movement solutions used during events like the Hajj of 2015 and the crowd-management practices of the 2012 London Olympics.
The planning phase integrated expertise from multinational consortia similar to those behind Bechtel projects and rolling-stock suppliers such as Siemens and Alstom, and procurement processes mirrored practices of the Doha Metro tendering. Urban integration required coordination with authorities responsible for the Grand Mosque precincts, municipal bodies akin to the Makkah Municipality, and transportation regulators comparable to the Saudi Ministry of Transport. Environmental impact assessments referenced international standards applied in projects like the Riyadh Metro and the Jeddah Corniche urban renewal, while engineering contracts included civil works, systems integration, and signalling strategies resembling CBTC deployments used on the Dubai Metro.
Phase 1 envisaged multiple lines connecting key pilgrimage nodes: terminals near the Masjid al-Haram, the Mina tent area, the Mount Arafat approaches, and feeder links toward Jeddah. Station design incorporated crowd-flow principles seen in the Grand Central Terminal renovations and platform-screen-door technologies implemented on the Singapore MRT and the Hong Kong MTR. Interchange nodes were sited to interface with bus terminals and corridors aligned with projects like the Haramain high-speed railway and arterial roads upgraded in line with the King Abdulaziz Project for Makkah City.
Operational planning adopted scheduling and capacity management lessons from the Tokyo Metro and the Seoul Metropolitan Subway, with peak-period timetabling tailored to the cyclical surges associated with the Hajj and Umrah seasons. Service patterns included shuttle circuits between pilgrimage sites and trunk services linking residential districts influenced by regulations akin to those enforced by the Saudi Ministry of Interior for crowd safety. Staffing, security, and customer-service frameworks drew on models used by agencies such as the Transport for London and the Riyadh Metro operator structures.
Rolling-stock specifications reflected requirements for high-capacity, air-conditioned units with rapid acceleration similar to fleets supplied by Alstom and Bombardier for the Doha Metro and Riyadh Metro. Signalling strategies considered communications-based train control approaches used on the Vancouver SkyTrain and the Dubai Metro to enable short headways during peak pilgrimage movements. Station systems integrated passenger-information displays, automated fare collection comparable to implementations by the Singapore MRT and interoperable ticketing schemes modeled after the Oyster card and the Octopus card practices.
Projected ridership analyses used modeling approaches from major transit studies such as those underlying the London Crossrail and the Istanbul Metro expansions to estimate pilgrim and resident demand during events like the Hajj and seasonal Umrah. Expected impacts included reductions in surface congestion on corridors linking the Grand Mosque with the Jeddah–Makkah Road, improvements to air quality aligned with objectives similar to Saudi Vision 2030, and enhanced accessibility akin to benefits observed after Doha Metro operations commenced.
Longer-term proposals anticipated network extensions to connect with regional initiatives including the Haramain high-speed railway and urban developments like the Jeddah Tower corridor, and to coordinate with metropolitan plans reminiscent of the Riyadh Metro multi-line rollout. Further phases envisioned procurement rounds engaging global suppliers such as Siemens and Alstom, and integration with smart-city programs parallel to ambitions seen in the NEOM project and national transport strategies under the umbrella of Saudi Vision 2030.
Category:Rapid transit in Saudi Arabia