Ultra-deep water port: feasibility study
Report compiled by Ernst & Young following their feasibility study looking at the most cost effective locations for an ultra-deep water port in the UK.
Appendix C: Location assessment by Arch Henderson LLP
Document Control
Notice
This document has been produced by Arch Henderson LLP for Ernst & Young LLP solely for the purpose of proving port assessments to facilitate compilation of an Ultra-deep water port feasibility study.
It may not be used by any person for any other purpose other than that specified without the express written permission of Arch Henderson LLP. Any liability arising out of use by a third party of this document for purposes not wholly connected with the above shall be the responsibility of that party who shall indemnify Arch Henderson against all claims costs damages and losses arising out of such use.
Document Information
© |
Information |
---|---|
Document Id |
185014 - Ultra-deep Water Port Feasibility Study |
Document Owner |
Ernst & Young LLP |
Issue Date |
29th May 2018 |
Last Saved Date |
4th July 2018 |
File Name |
185014 _Ultra-deep Water Port Feasibility Study |
Document History
Version |
Issue Date |
Changes |
---|---|---|
Draft |
29th May 2018 |
|
Draft |
4th June 2018 |
Draft Updated |
Rev 2 |
7th June 2018 |
Updated - Assessment Complete |
Rev 3 |
4th July 2018 |
Updated |
Document Approvals
Role© |
Name |
Signature |
Date |
---|---|---|---|
Project Partner |
A Kilbride |
Alan Kilbride |
04/07/18 |
Project Engineer |
Tom Rea |
Tom Rea |
04/07/18 |
1 Introduction
This report accompanies and provides supporting narrative to a spreadsheet which was developed to capture all relevant marine infrastructure criteria necessary to assess the feasibility of an Ultra-deep water port in the UK. The spreadsheet in question is included in Appendix A.
1.1 Description of Study
A list of ports to be considered for use as ultra-deep water ports was provided to Arch Henderson by EY and had input from various parties.
As most selected ports have multiple quays, the most appropriate quay(s) within each port for use as an ultra-deep water quay were identified and these are used in the criteria assessment. This approach results in some ports having multiple quays for consideration, which ensures that the optimum location within a port is considered for use, especially with regards to quay length and depth of water available. If a port, supposed to a specific quay, was used in the assessment then the figures would be misleading as not all quay length is continuous or has the same depth of water available.
A list of assessment criteria was developed between EY and AH to allow for a comparison of quays in relation to their suitability for use as an ultra-deep water quay.
Where port development is underway or planning for expansion is known to be in advanced stages then the developed quay in question has been included in the list so as to capture the future parameters of the quay.
2 Criteria
2.1 Hard Criteria
Depth below CD (m)
The depth of water below chart datum available adjacent to the quay. Chart datum is approximately the lowest tide level therefore this depth can be considered the minimum depth of water that is always available.
Tidal Range MHWS - MLWS (m)
The mean spring range which represents the difference in height between spring high water and spring low water. This is generally considered the largest tidal range within a typical calendar month.
Quay Length (m)
The length of the quay that is being assessed.
Approach Channel
Details of the approach including the limiting approach depth (m below CD). In a number of cases the limited depth of the approach channel does not permit access of heavy lift vessels.
2.2 Soft Criteria
LOA (m)
The overall length of a vessel. In this context the value given refers to the maximum vessel size that can berth at the quay. This could be governed by quay length and also port access.
Area of external laydown (m2)
Represents the approximate land available for laydown within the port that is readily accessible from the quay. In some ports all laydown area is reasonably accessible due to the port layout. However in some ports, normally within a city, some port land is not easily accessed from a particular quay. In this instance the area considered accessible is given. The area given does not consider existing land leases that may be in place.
Distance to NNS Basin (km)
The distance from the port to a location in the NNS basin which has been calculated by averaging the coordinates of all platforms located within the NNS basin which have a fixed base and weigh more than 10,000 tonnes.
Distance to CNS Basin (km)
The distance from the port to a location in the CNS basin which has been calculated by averaging the coordinates of all platforms located within the MFD basin and the CNS basin which have a fixed base and weigh more than 10,000 tonnes.
General Quay Capacity (kN/m2)
The load rating of the quay, excluding any heavy lift zones.
Heavy Load Length (m)
The length of any heavy lift zones on the quay.
Heavy Load Capacity (kN/m2)
The load rating of any heavy lift zones on the quay.
Load ratings have been given in kN/m2. It is the case for a lot of quays that they have been designed to accommodate certain outrigger / crane track loadings which will facilitate specific heavy lifts. Where this information is known, it has been included in the comments column.
3 Assessment
3.1 Hard Criteria - Stage 1
A common requirement of an ultra-deep water quay is that it should have at least a depth of water adjacent to the quay of -24m CD. This is to accommodate the depth of water required by a heavy lift vessel during a lift. In transit, a fully laden heavy lift vessel may only require 11 to 14m of water depth, however when lifting, the ballast tanks are flooded and the depth of water required can increase to 24m+. Clearly very few of the existing facilities meet this criteria at present therefore the first stage of the assessment was to eliminate quays where it is felt that the extent of works required to upgrade the facility are simply not feasible or would require an exceptional engineering solution.
It should be noted that some heavy lift vessels require water depths of up to 34m to facilitate a lift of 10,000T +, however for the purposes of this report, Arch Henderson have been asked to use a value of 24m as a bench mark for an ultra-deep water port.
As a starting point for this stage of the assessment, any quay with a depth of water less than -9m CD at the quay or with an approach channel depth of less than -9m CD was considered not to be a viable and favoured option for an ultra-deep water quay. To increase a quay depth by 15m would take considerable re-engineering and significant large scale dredging operations to accommodate the deeper berthing pocket. Similarly to significantly deepen the approach channel depths would involve extensive capital and maintenance dredging.
The quays considered non-viable due to the following hard criteria requirements are included in the table below:
- Depth of water at quay of less than -9m CD
- Limiting depth of water in approach channels of less than -9m CD
Harland & Wolff |
Current |
Steel Wharf (DRY) |
---|---|---|
Port of Blyth |
Current |
South Harbour - West Quay |
Montrose - Norsea Support Base |
Current |
Berths 1 & 2 |
Kishorn |
Current |
Dry Dock |
Lyness |
Current |
Lyness Wharf |
Aberdeen Harbour |
Current |
Torry Quay (3-6) |
Aberdeen Harbour |
Current |
Albert Quay |
Aberdeen Harbour |
Current |
Clipper Quay |
Leith |
Current |
Imperial Dock |
Hartlepool (Able Seaton) |
Current |
Dry Dock |
Harland & Wolff |
Current |
Belfast Quay |
Energy Park Fife |
Current |
EPF One |
Energy Park Fife |
Current |
EPF Two |
Arnish |
Current |
Materials Quay |
Harland & Wolff |
Current |
Belfast Quay |
Peterhead - ASCO South Base |
Current |
ASCO South Base |
Wick |
Current |
Commercial Quay 1 |
Hunterston - Platform |
Current |
Construction Jetty |
Inverkeithing |
Current |
Main Quay |
Ardersier |
Current |
Main Quay |
Dundee |
Current |
New Quayside |
Swan Hunter Yard |
Current |
Main Quay |
3.2 Practicality Assessment - Stage 2
Of the remaining quays, a high level practicality assessment was undertaken to ascertain the feasibility of increasing the dredge depth to -24m CD at the quay side and of increasing the approach channel depth to -14m CD. This was undertaken using admiralty charts and where applicable, local knowledge of the marine conditions.
The quays that were considered non-viable at this stage are listed below, together with the reasoning:
Greenhead Base - Shetland
The depth of the approach channel to Greenhead base is limited to -9m CD and it would be difficult to significantly increase this due to the width of the channel. Creating a dredge pocket of -24m CD would also be difficult due to the width of the channel.
Peterhead - Smith Quay
Much of Peterhead Port (Peterhead Bay) is dredged to -12m CD and the approach channels are deep. It would therefore be feasible to get fully laden heavy lift vessels in to the Port. Smith Quay however only has a dredge depth of -10m CD adjacent to the quay. To increase this to -24m CD would take a significant extension to the quay and also considerable additional dredging within the port to maintain the lower dredge pocket. This would impact on much of the existing quayside.
Hunterston - Dry Dock
The dry dock at Hunterston is currently at design stage. To increase the depth of the dry dock to -24m CD would require exceptionally increased engineering costs and would also require extensive dredging within a SSSI area.
Hunterston - Platform
The new platform quay at Hunterston is currently at design stage. The make the quay any deeper would require extensive dredging in a SSSI area.
Nigg - Dry Dock
The level of the dry dock is -9.1m CD and to deepen this would require significant construction work. The dry dock is restricted by the fact that it cannot be extended out in to the deep channel.
Aberdeen Harbour South
There has been a large investment into wave modelling at the Aberdeen Harbour South development. Deepening the entrance channel would require significant re-modelling and potentially lead to high swell conditions in the harbour. The result may be a new breakwater for vessels to manoeuvre around or increasing the size of all the rock armour. There is also the logistics of closing the harbour to dredge rock out the inner basin while rebuilding or strengthening the surrounding structures.
Hull Greenport
Hull Greenport is located on the river Humber approximately 40 kilometres from the estuary mouth. The Humber channel is presently dredged to a depth of -8.8m CD and any increase to this would require extensive dredging and maintenance dredging operations.
Hartlepool (Able Seaton)
Quays 10 & 11 are currently dredged to -11m CD however they have been designed for a -15m CD dredge. A greater water depth could be achieved with the construction of a new quay however this would have considerable impact on adjacent infrastructure and ultimately there is no naturally deep water present adjacent to the quay so considerable capital and maintenance dredging would be required.
The Tees approach channel is dredged to approximately -14mCD, however the Seaton-on-Tees Channel which is the direct approach to Able Seaton is only currently dredged to -6mCD (although it has been design for a -9.5m dredge). In order to provide a deeper approach, considerable capital and maintenance dredging would be required.
Great Yarmouth
Extensive development would be required to increase the depth of water at Great Yarmouth. Considerable lengths of the quay structures would need extending and significant dredging would be required within the port which would likely undermine much of the existing infrastructure and the breakwaters.. The Holm Channel is currently the deepest approach to Great Yarmouth with limiting water depths of approximately -11m CD.
The heavy lift vessels have large turning circles and it is very unlikely these can be accommodated at the required depth within Great Yarmouth Port.
3.3 Soft Criteria - Stage 3
Following the assessments in stages 1 and 2, the ports listed in the table below are remaining and are therefore considered the most appropriate for an ultra-deep water quay development. It was therefore necessary to assess the soft criteria to identify the Port / Ports which are considered the most viable.
Dales Voe - Shetland |
After Expected Development |
Dales Voe (extension) |
---|---|---|
Dales Voe - Shetland |
Current |
Dales Voe |
Invergordon |
Current |
SB5 |
Invergordon |
After Expected Development |
SB5 |
Invergordon |
Current |
Queens Dock |
Hunterston - Ore jetty |
Current |
Outer Berth |
Nigg |
Current |
Quay 3 |
Redcar Bulk Terminal |
Current |
Main Quay |
Invergordon
Of the quays at Invergordon, the most suitable will be SB5 following the extension works which are currently underway. The existing dredge depths are not suitable for an ultra-deep water port, however further development could be undertaken to increase the depth of water available. The works would be considerable however it is feasible. The general quay capacity will be 70kN/m2 which is considered too small for operation of fully loaded SPMT's, however there are strengthened sections of quayside to facilitate heavy crane lifts and additional strengthening could potentially be carried out.
The Cromarty firth is generally deep and the channel adjacent to Invergordon Port has a water depth of approximately -14m CD.
Post development, there will be approximately 130,000m2 of laydown available at Invergordon.
The Cromarty Firth is well located to the North Sea basins, with Invergordon located 445 kilometres to the NNS basin and 310 kilometres to the CNS basin.
It should be noted that the depth of the Cromarty Firth is greater adjacent to Nigg Energy Park and for this reason it would be a better engineering solution to develop an UDW quay Nigg rather than Invergordon. As the depth of the channel adjacent to Invergordon is only -14m CD, significant capital and maintenance dredging would be required to develop and maintain the quay. At Nigg natural deep water is present in the channel.
Redcar Bulk Terminal
Redcar bulk terminal has a 300m long quay with a dredge pocket of -17.1m CD. The Tees approach channel is dredged to -14.1m CD. The facility is equipped for bulk handling and there is appropriate processing plant and infrastructure on-site suited to a bulk facility. Whether this facility is compatible with an UDWP would need to be determined. The quay has two ship to shore cranes which it is assumed operate along two strengthen rail positions. It is unknown what the UDL quay load capacity is.
Hunterston - Ore Jetty
The jetty head originally facilitated the operation of a STS crane which ran along two rails beams. The jetty head does therefore not provide a large quay area for offloading, transporting or storage. Much of the jetty is rated at 25kN/m2 only, however the two longitudinal beams which served the STS Crane can accommodate a greater load and there is a central strongpoint in the jetty head which could likely accommodate greater loadings.
The jetty head is connected to land via an approach jetty which is not rated to accommodate SPMT loads. This facility would therefore only be suitable for lifting platform sections on to smaller barges located on the inner berth of the jetty head. Alternatively the approach jetty could be strengthened to accommodate SPMT's.
Hunterston is located off the West coast of Scotland with a distance to the NNS and CNS basins in the order of 1,000km. The steaming time to reach the Port from the North Sea is therefore considerably greater than the Ports located on the East and quite possibly economically unviable.
Dales Voe - Shetland
The Dales Voe channel provides water depths of -32m CD which reduces down to approximately - 20m CD in the centre of the channel adjacent to the quay. Therefore if the proposed development works and associated dredging have been carried out, a -24m CD depth of water will be provided at the quay and along the approach channels.
High quay loading capacities ensure that Dales Voe can facilitate heavy lifts, operation of SPMT's and accommodate laydown of heavy components lifted from heavy lift vessels.
The quay is close to both the NNS basin and the CNS basin.
Laydown area is not extensive but at 90,100m2, following the proposed development, there is still sufficient space for landside operations. It is considered that 100,000m[2] of additional laydown area could be generated by excavating in to the hill behind the port if required.
Nigg Energy Park
Quay 3 at Nigg Energy Park has a dredge depth of -12m CD adjacent to the quay. The quay could be extended out further in to the Cromarty firth in order to increase the depth of water available. This would be a costly development however it would be feasible without disturbance of adjacent infrastructure.
The Cromarty Firth is deep adjacent to Nigg Energy Park with water depths in the order of -30m CD in the centre of the channel. There is however a straight of shallower water (-14m CD) just before the Cromarty Firth meets the Moray Firth. This should still however be able to accommodate heavy lift vessels in transit.
Existing quay loadings are sufficient to accommodate SPMT loads at 100kN/m2.
The Cromarty Firth is well located to the North Sea basins, with Nigg located 440 kilometres to the NNS basin and 305 kilometres to the CNS basin.
The depth of the Cromarty Channel adjacent to the quay at Nigg is greater than the depth at Invergordon. This reduces the required dredging operation associated with upgrading to an ultra-deep water quay. Ultimately the close proximity of natural deep water to the existing quay means there is a sensible engineering solution for creation of an UDW quay at Nigg.
4 Conclusion
Based on the port assessments carried out, it is apparent that there are, at present, no facilities which can serve as a conventional Ultra-deep water port.
The assessment has however, identified the two ports which are conceivably best equipped for upgrading to an Ultra-deep water port; Nigg Energy Park and Dales Voe. The governing factors are largely due to the depth of water adjacent to the existing quay. In the case of both of these quays, deep water is naturally present in the approach channels and near to the existing quay edge. By extending the quay, this deep water can be reached to allow for a vertical quay face with a berthing pocket of -24m CD that extents in to a channel of the same depth or deeper.
Dales Voe:
Existing quay capacity of 600 kN/m2 can facilitate very heavy lifts.
Approach channels are very deep.
Plan for development of Ultra-deep water quay in place.
Close proximity to both the NNS and the CNS.
Nigg Energy Park:
Existing quay capacity of 100 kN/m2. Suitable for operation of SPMT's but not necessarily suitable for all requirements of an Ultra-deep water quay. May have to be strengthened.
Approach channel is deep, however there is a straight of shallower water (-14m CD) just before the Cromarty Firth meets the Moray Firth.
No known current plan for development of Ultra-deep water quay.
Close proximity to both the NNS and the CNS basins.
Appendix A
Ultra-deep water port feasibility study
Date: 04/07/2018
Ports | Port Status | Specific Quay | Hard Criteria | Soft Criteria | Comments | ||||||||||
---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
Tidal Range MHWS - MLWS (m) | Depth below CD at Quay (m) | Quay Length (m)* | Limiting Approach Channel Depths - below CD (m) | Passes Hard Criteria Requirements (√/x) | Distance to NNS Basin (km) | Distance to CNS (km) | Max LOA (m) | Area of External Laydown (m2) | General Quay Capacity (kN/m2) | Heavy Load Out Length (m) | Heavy Load Out Capacity (kN/m2) | ||||
Dales Voe - Shetland | Current | Dales Voe | 2.2 | 12.5 | 127 | 25 | √ | 145 | 302 | 330 | 59,600 | 600 | 75 | 600 | 8,000kN/m line load capacity |
Dales Voe - Shetland | After development (Currently development a proposal only) | Dales Voe (extension) | 2.2 | 24 | 100 | 25 | √ | 145 | 302 | 250 | 90,100 | 100 | 100 | 500 | Opportunity to develop a further 100,000m2 of laydown. |
Greenhead base - Shetland | Current | Greenhead Base | 2.2 | 9.1 | 468 | 9 | √ | 145 | 302 | 200 | 160,000 | 50 | 200 | 500 | |
Peterhead - Smith Quay (Norsea) | Current | Smith Quay | 3.3 | 10 | 120 | 12.5 | √ | 370 | 170 | 130 | 60,000 | 30 | 30 | 50 | Deck designed for local point loads of 80T |
Peterhead - ASCO South Base | Current | ASCO South Base | 3.3 | 5.9 | 486 | 12.5 | x | 370 | 170 | 280 | 8,000 | 27 | 27 | Small local heavy lift zone. Too small for most cranes. Recent very specific lift. | |
Invergordon | Current | SB5 | 3.7 | 13.5 | 154 | 14 | √ | 446 | 310 | 185 | 80,000 | 70 | 120 | ||
Invergordon | Current | Queens Dock | 3.7 | 12 | 150 | 14 | √ | 445 | 310 | 150 | 80,000 | 70 | 70 | ||
Invergordon | After development (Currently at construction tender) | SB5 | 3.7 | 13.5 | 369 | 14 | √ | 445 | 310 | 300 | 130,000 | 70 | 120 | ||
Aberdeen Harbour | Current | Clipper Quay | 3.7 | 9 | 174 | 6.6 | x | 410 | 195 | 7,000 | 40 | 40 | |||
Aberdeen Harbour | Current | Torry Quay (3-6) | 3.7 | 7.5 | 400 | 6.6 | x | 410 | 195 | 40,000 | 50 | 60 | 100 | 115T outrigger load (1.5m by 1.5m spreader pad) | |
Aberdeen Harbour | Current | Albert Quay | 3.7 | 7.5 | 490 | 6.6 | x | 410 | 195 | 40 | 40 | ||||
Aberdeen - (Aberdeen Harbour South) | After development (Currently at construction stage) | East Quay | 3.7 | 10.5 | 400 | 10.5 | √ | 410 | 195 | 125,000 | 150 | 150 | |||
Aberdeen - (Aberdeen Harbour South) | After development (Currently at construction stage) | North Quay | 3.7 | 9 | 540 | 10.5 | √ | 410 | 195 | 125,000 | 150 | 150 | |||
Montrose - Norsea Support Base | Current | Berths 1 & 2 | 5.2 | 8.2 | 225 | 5.5 | x | 470 | 235 | 164 | 8,000 | 75 | 150 | ||
Dundee | Current | New Quayside | 4.8 | 9 | 200 | 6 | x | 530 | 285 | 200 | 145,000 | 200 | 800 | 80T/m2 ultra heavy lift pad | |
Nigg | Current | Quay 3 | 3.7 | 12 | 370 | 14 | √ | 440 | 305 | 241 | 700,000 | 100 | 100 | 230,000m2 storage adjacent to quay. 700,000 across site | |
Nigg | Current | Dry Dock | 3.7 | 9.1 | 240 | 14 | √ | 440 | 305 | 260 | 700,000 | 200 | 230,000m2 storage adjacent to quay. 700,000 across site. 122m opening | ||
Energy Park Fife | Current | EPF One | 4.8 | 6.5 | 184 | 6 | x | 560 | 310 | 190 | 380,000 | 200 | Up to 60T/m2 patch loads) | ||
Energy Park Fife | Current | EPF Two | 4.8 | 6.5 | 176 | 6 | x | 560 | 310 | 180 | 380,000 | 200 | 200 | ||
Inverkeithing | Current | 5 | 3 | 1 | x | 580 | 335 | ||||||||
Ardersier | Current | 3.7 | 2.8 | 14 | x | 445 | Closed in 2001 | ||||||||
Kishorn | Current | Dry Dock | 4.6 | 8 | 166 | 30 | x | 625 | 570 | 200 | 100,000 | 166 | Dry dock. Lifting positions possibly restricted to dock gate | ||
Leith | Current | Imperial Dock | 4.8 | 6.7 | 1396 | 6.7 | x | 570 | 325 | 210 | 90,000 | 50 | 50 | Port is locked, depth governed by cill height | |
Wick | Current | Commercial Quay 1 | 3.1 | 4.5 | 140 | 4 | x | 335 | 255 | 110 | 6,600 | 75 | 115 | Proposals to develop Shaltigoe deep water berthing basin | |
Hunterston - Platform | Current | Construction Jetty | 3.5 | 3.8 | 66 | 7 | x | 1025 | 965 | 80 | 404,686 | TBC | TBC | ||
Hunterston - Platform | After Development (Currently at design stage) | Construction Jetty | 3.5 | 10.5 | 101 | 10 | √ | 1025 | 965 | 120 | 404,000 | 150 | 101 | 150 | |
Hunterston Dry Dock | After Development (Currently at design stage) | Dry Dock | 3.5 | 9.5 | 10 | √ | 1025 | 965 | 404,000 | Dry Dock | |||||
Hunterston - Ore jetty | Current | Outer Berth | 3.5 | 20 | 443 | 30 | √ | 1025 | 965 | 300+ | 404,000 | 25 | TBC | Heavy lifts possible from central strongpoint (approx 40m by 20m) | |
Lyness | Current | Lyness Wharf | 3 | 8 | 122 | 14 | x | 335 | 280 | 180 | 310,000 | 50 | |||
Arnish | Current | Materials Quay | 4.1 | 6.5 | 100 | 8 | x | 540 | 485 | 100 | 48,000 | 40 | 50 | 100 | 50m general quay can also takie 100T outrigger loads on quay edge |
Greater Yarmouth (Veolia & Peterson) | Current | Outer Harbour | 2.5 | 10 | 875 | 11 | √ | 870 | 570 | 200 | 360,000 | 360,000m2 of land potential? | |||
Hartlepool (Able Seaton) | Current | Dry Dock | 4.6 | 6.6 | 350 | 6 (design of 9.5) | x | 655 | 370 | 350 | 300,000 | 100 | 50 | 600 | Dry Dock |
Hartlepool (Able Seaton) | Current | Quays 10 & 11 | 4.6 | 15 | 306 | 6 (design of 9.5) | √ | 655 | 370 | 300 | 300,000 | 200 | 20 | 600 | Seaton Channel currently-6m CD. Design depth -9.5m CD Quays currently at -11m however have been designed for -15m dredge. |
Harland & Wolff | Current | Belfast Quay | 301 | 6.6 | 432 | 9.3 | x | 976 | 920 | 300 | 60,000 | 40T crane @ 30m radius | |||
Harland & Wolff | Current | Steel Wharf (DRY) | 3.1 | 8.5 | 170 | 9.3 | x | 976 | 920 | 160 | 60,000 | Kroll Tower Crane 20T @ 19m radius. | |||
Harland & Wolff | Current | Belfast Dock (DRY) | 3.1 | 6 | 270 | 9.3 | x | 976 | 920 | 250 | 60,000 | Gantry Cranes - 2 * 840T. Tower Cranes 2 * 60T. Dock Floor 23,600m2 | |||
Hull Greenport | Current | Main River Quay | 6.9 | 11.5 | 420 | 11 | √ | 790 | 500 | 350 | 580,000 | 80 | 100 | ||
Swan Hunter Yard | Current | 4.3 | 9.1 | 6 | x | 630 | 345 | ||||||||
Redcar bulk terminal (Teeside) | Current | Bulk Terminal | 4.6 | 17.3 | 300 | 14.1 | √ | 655 | 370 | 300 | 1,000,000 | Currently used for bulk offload to serve Redcar Steelworks. Served by STS cranes. | |||
Port of Blyth | Current | South Harbour - West Quay | 3.3 | 8.5 | 175 | 6 | x | 610 | 330 | 150 | 40,000 | Max 120 T capacity craneage | |||
Benchmark | |||||||||||||||
Vats - AF Decom | Main Quay | 23 | 182 | 325 | 355 | 68,000 | 100 | 100 | |||||||
Stord Kvaener | Main Quay | 15 | 149 | 258 | 343 | 63,000 | 150 | 150 |
* Details are provided for what is considerd the most appropriare quay / quays in the Port for use as an UDWQ
* Laydown area shown is approximately the total area accessable within the port boundary
* Hard Criteria requirement is considered to be a Quay depth of -9m CD and an approach depth of -9m CD.
Contact
Email: Claire Stanley
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