HS2’s £465M Lift & Escalator Mega-Project

HS2’s £465M Lift & Escalator Mega-Project
April 26, 2020 6:38 am



This article explores the significant procurement process undertaken by High Speed 2 (HS2), the UK’s ambitious new high-speed rail network, for the design, installation, and long-term maintenance of approximately 300 lifts and escalators across four new stations in London and Birmingham. This undertaking represents a substantial investment and highlights the crucial role of vertical transportation systems in ensuring the accessibility, efficiency, and overall passenger experience of a major railway infrastructure project. The sheer scale of this procurement, encompassing a total of 168 lifts and 128 escalators with a combined length exceeding 3 kilometers (when placed end-to-end, longer than the Forth Rail Bridge), underscores the complexity and logistical challenges involved in delivering a modern, high-capacity railway system. Furthermore, the project’s commitment to sustainability, aiming for zero-carbon operational standards and achieving a BREEAM Excellent rating, adds another layer of complexity to the procurement process, requiring careful consideration of energy efficiency and environmentally friendly materials in the selection of lift and escalator systems. The focus on accessibility, exemplified by step-free access from street level to platforms, is paramount, highlighting the societal implications of this major infrastructure project.

The Scale and Scope of the HS2 Lift and Escalator Procurement

The HS2 project’s procurement of approximately 300 lifts and escalators for four new stations represents a significant undertaking. This involves a £465 million contract, divided into two packages – one for lifts and one for escalators. The sheer volume of equipment, encompassing 168 lifts and 128 escalators, necessitates a robust procurement strategy to ensure timely delivery, quality control, and efficient integration within the wider station design. The successful bidders will not only supply the equipment but also be responsible for its maintenance for two decades, underscoring the long-term commitment to the operational reliability of these critical vertical transportation systems. The procurement process also emphasises the need for innovative solutions, given the project’s commitment to sustainability and the aim of achieving a BREEAM Excellent rating. This necessitates the selection of energy-efficient equipment designed to minimize environmental impact.

Accessibility and Passenger Flow: Designing for Seamless Journeys

The design and implementation of the lift and escalator systems are paramount in ensuring seamless passenger flow and accessibility. The stations are planned to be fully accessible, with step-free access from street level to platforms, a crucial element of inclusive design. The longest escalators, located at Old Oak Common station, will transport passengers 13.5 meters from the subsurface platforms to the concourse level, highlighting the vertical challenges presented by the station design. The careful planning and integration of lift and escalator placement and capacity are crucial to accommodate the projected high passenger volumes, efficiently moving hundreds of thousands of passengers daily. The strategic placement of these systems is not merely a logistical exercise; it directly impacts the user experience and the overall efficiency of the stations.

Sustainability and the BREEAM Excellent Rating

HS2’s commitment to sustainability is a defining feature of the project. The target of achieving a BREEAM (Building Research Establishment Environmental Assessment Method) Excellent rating for the new stations places stringent requirements on all aspects of the construction, including the choice of lift and escalator systems. The selection process must prioritize energy-efficient technologies, low-carbon materials, and lifecycle considerations to minimize the environmental impact throughout the entire lifespan of the equipment. This commitment extends beyond the immediate environmental benefits; it reflects a broader societal responsibility and reinforces the long-term value of sustainable infrastructure development. The procurement process must carefully balance cost-effectiveness with environmental performance, a key challenge in large-scale infrastructure projects.

Conclusion

The HS2 lift and escalator procurement represents a crucial element of the wider project, underscoring the importance of vertical transportation systems in ensuring the efficiency and accessibility of a major railway network. The scale of the undertaking, involving approximately 300 units with a combined length exceeding 3km, highlights the significant logistical challenges. The procurement process is not merely about acquiring equipment; it is about ensuring seamless passenger journeys, promoting accessibility, and adhering to stringent sustainability standards. The commitment to a BREEAM Excellent rating signifies a broader commitment to environmentally responsible development, pushing the boundaries of sustainable infrastructure design. The 20-year maintenance contract underlines the importance of long-term operational reliability and cost-effectiveness. The success of this procurement will be a key indicator of the overall success of HS2 in delivering a truly modern, efficient, and sustainable high-speed rail network for the UK. The selection of highly skilled and experienced contractors will be vital in meeting the project’s ambitious targets for functionality, sustainability, and passenger satisfaction. Ultimately, the efficient and reliable operation of these systems will play a critical role in the overall success of the HS2 project and its ability to meet the ambitious targets for passenger numbers and travel times between London, Birmingham, and the north of England. The successful implementation of these systems will serve as a benchmark for future large-scale transport projects, demonstrating the importance of integrated design, sustainability considerations, and a long-term commitment to operational excellence.