NMTgCw7v4Sr5Bv7Wzp0_0m3jxW11NR8No8Y9k2NfB-o,CFBtgMF2nraK3cbkowFu-V1oRA8XMpm8UCrqP6qORws,qm2rjqOjKeNubZpGE9erR_i3V7M97ncAUEz4u6Gdtp8
wIuR6KY8K02lTLl0cfs_ZXnvIQy6Au44qRPO7It5Ucw,Ul-3i9n0yrtY0zGzTHLNPajVsF6QQsvAoqrE-z0FzXw,7daz5RZgbK4dFoq504J7orzpyKKAu-c6lFcelAig5TA
1. partially laid out
2. Students-taking-fencing-up
3. Taking the steel plates up
4. Ed and wolfgang packing Aquadyne
6. Drawing the circle (3)
8. Aquadyne-layingout
9. CBO and Students
10. Close up of Aquadye
11. Close up of Layer Scaffolding
12. Aquadyne Stacked
13. Layher Scaffolding (2)
14. Closeup of students
15. First metre up
16. Approaching 2m
18. On site team with Wolfgang
20. Cone and Sign
21. Looking through the roof
22. Wolfgang checks angles
23. Wolfgang quiet contemplation
24. The stabilising lintel
25. Students with aquadyne
26. Scaffold goes up
27. Scaffold tower under construction
28. Scaffold tower in use
29. Scaffold tower
30. Scaffold interior
31. Scaffold interior 2
32. Up tp 3 meters high
33. Safety boat on site
34. Next rise of scaffold up
35. Interior of next scaffold rise
36. Cone up to 6m
37. Mears discuss the final 3m build
38. Cone up to 7m
39. Nearing completion
40. View from the base to 8m

Cone (detail)

41. 1.5m to go
42. Interior scaffold up to 8m
43. Wolfgang at the top of Cone - 9m and complete
44. Cone complete, before scaffold strip-out
45. Wolfgang with the completed, 9m high Cone
46. Completed Cone from the bank
47. The completed Cone panorama
Kycz_hYYD0pSfF9GZp1J4Utrb4SlGP1dktCa5ceOQ4AQjfkmZvwpuuV6DqxCa-mEd4bbmjNQuxl9TDCmLLpNHYsR8MkUKIG8TY5yXD0BspHP4P-GdtE8W4sOopkh_mx9M
NMTgCw7v4Sr5Bv7Wzp0_0m3jxW11NR8No8Y9k2NfB-o,CFBtgMF2nraK3cbkowFu-V1oRA8XMpm8UCrqP6qORws,qm2rjqOjKeNubZpGE9erR_i3V7M97ncAUEz4u6Gdtp8wIuR6KY8K02lTLl0cfs_ZXnvIQy6Au44qRPO7It5Ucw,Ul-3i9n0yrtY0zGzTHLNPajVsF6QQsvAoqrE-z0FzXw,7daz5RZgbK4dFoq504J7orzpyKKAu-c6lFcelAig5TA1. partially laid out2. Students-taking-fencing-up3. Taking the steel plates up4. Ed and wolfgang packing Aquadyne6. Drawing the circle (3)8. Aquadyne-layingout9. CBO and Students10. Close up of Aquadye11. Close up of Layer Scaffolding12. Aquadyne Stacked13. Layher Scaffolding (2)14. Closeup of students15. First metre up16. Approaching 2m18. On site team with Wolfgang20. Cone and Sign21. Looking through the roof22. Wolfgang checks angles23. Wolfgang quiet contemplation24. The stabilising lintel25. Students with aquadyne26. Scaffold goes up27. Scaffold tower under construction28. Scaffold tower in use29. Scaffold tower30. Scaffold interior31. Scaffold interior 232. Up tp 3 meters high33. Safety boat on site34. Next rise of scaffold up35. Interior of next scaffold rise36. Cone up to 6m37. Mears discuss the final 3m build38. Cone up to 7m39. Nearing completionCone (detail)41. 1.5m to go42. Interior scaffold up to 8m43. Wolfgang at the top of Cone - 9m and complete44. Cone complete, before scaffold strip-out45. Wolfgang with the completed, 9m high Cone46. Completed Cone from the bank47. The completed Cone panoramaKycz_hYYD0pSfF9GZp1J4Utrb4SlGP1dktCa5ceOQ4AQjfkmZvwpuuV6DqxCa-mEd4bbmjNQuxl9TDCmLLpNHYsR8MkUKIG8TY5yXD0BspHP4P-GdtE8W4sOopkh_mx9M

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Built from 2,200 sheets of 5kg Aquadyne, Cone was erected in 9 days by apprentices of Gateshead College and Mears.

Each of the individual panels (amounting to a total of 11.5 tonnes) and 3 tonnes of Layher scaffold were handled to the top of the Staiths, without mechanical assistance.

Following the marking out of the footprint of Cone by our structural engineer, Charles Blackett-Ord, the apprentices started the process of laying a spiralling conical pattern of full size panels interspersed with two-third cut pieces. Through ensuring a continual even spacing, regularly spaced gaps are produced between the sheets, allowing wind loading to be minimised and reducing the overall weight of the sculpture.

After the structure had reached approximately 2 metres heigh, the scaffold contractor rBau came on to site to begin erecting the central scaffold tower, which reached a height of just under 9 meters, allowing the apprentices to build the full height of Cone, whilst safely within the internal structure.

A 3 metre high triangular jig was used at first to set the angle of Cone, and then followed by eye to realise the full height of the structure – eventually reaching 9 metres on completion.

Specifically designed and fabricated steel brackets and plates, connected together with industrial ratchet straps, acted to anchor the structure to the deck, in the event of significant wind loading, and were fixed after reaching the maximum height of Cone.