IWJS appointed by SCS JV to support HS2 area south enabling works
IWJS, one of the UK’s leading providers of services to wastewater networks and part of M Group Services, has been appointed by SCS JV (Skanska, Costain, STRABAG) to support enabling works for the key Phase One Area South section of the High Speed 2 (HS2) route.
Under the terms of the agreement IWJS will manage GPS, structural condition and asset mapping surveys of the chamber, sewers and trunk sewers covering the section between Euston station and Ruislip, approximately 15 miles by road. IWJS teams commenced work on the project in December 2019.
IWJS Managing Director, Christopher Stewart, commented: “HS2 will be the new backbone of the national rail network and we are delighted to have been selected by SCS JV for this key element of the works. Our CCTV crews will deliver a full utility mapping service so that all appropriate measures are taken to avoid service conflicts and collect detailed inspection data to identify any required service realignment works for the Area South route.
“Some of the trunk sewers that our teams will be working on day and night are over 11m deep and almost 2m in diameter and located under some of London’s busiest streets. Over the next six months, approximately 20,000 people are set to be inducted on the SCS project, so collaborative working will be essential. Given the scale and complexity of the project, we will work closely with SCS and other key stakeholders to mitigate the impact of the works and ensure that the best possible decisions are made throughout the duration of the project.”
HS2 will link London and Birmingham to Manchester, the East Midlands and Leeds. The high speed train will leave the HS2 Euston station entering a twin-bore tunnel underneath London and will arrive at HS2’s Old Oak Common station. After continuing through the underground station at Old Oak Common, the new interchange station connecting with the new Elizabeth line (Crossrail), a 13km tunnel will run through to West Ruislip, where trains will emerge to run on the surface.