CASE STUDIES
Villa Repiling, Lyttelton
Restoration and Repair, Custom Surefoot, High Loadings
​Our client for this project approached us to see if we could help him replace the foundation under his 100 year old villa.
​The original repair methodology called for screw piles, but this would have required an expensive house lift. Surefoot offered a cost effective and efficient pile replacement, completed within 2 days. As the system is concrete free, there was no requirement for any pile excavation or removal of soil from site, no concrete trucks or pumps, and the install saved the owner 2 weeks on the repair programme.
The system has in built relevelling to ensure any relevelling work required in the future can be completed within a few hours.
Hillside house in Rye
SF-150 3 way, Restricted access, Steep slopes
One of the many advantages that Surefoot offers is the ability to adapt to steep terrain. Our SF250 comes in three different configuration including; 4-way, 3-way and 2-way. Depending on loadings and soil characteristics, the 4-way SF250 is usually the preferred option. The flexibility of the 2 and 3-way options allows the piles to be driven parallel to a boundary or an escarpment.
In this particular case, machinery access was limited and the intended design of deep bored piers was not economical. The owner considered Surefoot as a viable foundation and soon discovered that it was the right choice!
The design prompted the use of the SF250 3-way pile cap, the advantage of the 3-way configuration on a slope is that two of the piles can be driven across the slope while the remaining two pile are driven into the slope.
All footings were installed with basic hand tools, savings time and money, with no machinery costs and no time wasted waiting for concrete to dry.
Once the footings were installed the stumps were fixed using our standard connection brackets and bracing as per the engineers design.
Boating Club in Mt Eliza. VIC
Marine Environment, Custom Surefoot, High Loadings
Surefoot was the preferred footing option in the renovation of a Boating Club in Canadian Bay at Mt Eliza in Victoria. The main concerns of the design and engineering team in charge of the project were the design life of the structure under marine environment and the structural capacity of Surefoot under loadings of up to 300kN (30 tonne) of gravity.
Surefoot's Engineering and design team went to site to confirm the scope of works and to discuss the design process with the Project Manager in charge of the renovation. Since the original construction had concrete piles and there was no possibility of removal of the old footings, the driven micropiles would have to be set in order for them to avoid clashing with the existing structure
The structural engineer in charge of the design of the framing provided the footing loadings and the layout of the foundations to Surefoot. This information came along with the soil report of the location, which confirmed the presence of clays in the layers beneath the water.
As Surefoot was appointed to do the installation of the footings, special measures were taken to work in a marine environment. Projected installation times were cut by half from the projected two months.
The final construction went according to the plans and the client was very satisfied with the overall design.
With all of this information, the engineering team at Surefoot proceeded to do the design of the appropriate sized pilecap and micro-piles along with establishing an effective product for extra coating over the existing Surefoot treatment to meet the required design life required for this project.
Roof Structure in Karratha. WA
Cyclone-prone structure, Custom frame, Multiple Surefoot
Located in the north of Western Australia, Karratha has the highest rating in cyclone classification in Australia. That aspect made Surefoot a viable candidate as the footing option for the project of a cantilevered Roof structure in three local Skate Parks because of the high capcity for uplift loads that Surefoot offers. The option of using concrete was prohibitive due to the fact that there was an existing structure close to the proposed roof and there was no access to excavation.
The design consisted on a roof supported by two sets of columns in the back end of the structure. The engineering team received the structural design and the soil tests for the locations of the structures. The maximum uplift force for the supports was of 470kN. That force prompted the design of a combination frame using multiple Surefoot caps to resist such force.
After the Surefoot caps were installed, the frame for the roof was installed in the same week, saving time which was cost saving for the council.
Once the structure was awarded to the winning tenderer, the installation started by the contractor with training provided by Surefoot. The estimated installation time of 28 days was cut to just 14 days.
The result was very impressive and both the council and the contractor were pleased in using Surefoot.
Remote Hospital in Aurukun. QLD
From the beginning of the project, Surefoot was assigned as the footing for the construction of the modules of a remote Hospital far north Queensland.
Because the type of structure was going to be of public use, the loadings of the structure were taken into account when doing the design according to AS 1170.1. These loadings were confirmed by the engineering team at Surefoot after the project was issued by the Structural Engineer.
With the loadings and the soil test, the SF150 cap was selected (previously SF100). The site had a difference in height for the footings, which prompted the recommendation of using Surefoot's fully adjustable system.
Modular Structure in Glen Iris. VIC
Because of the benefits that Surefoot offers in terms of time and costs, a good number of Modular Building fabricators are choosing to use this footing option for projects all over Australia. One of them appointed Surefoot to be used in a three-storey structure in the inner east Melbourne suburb of Glen Iris.
After receiving the loadings from the structural engineer and the soil test, the selected footings were the SF-150 (previously SF-100) and SF-300, because of the difference in loadings on all of the footings. The selected connection was a steel stump welded directly into the Surefoot.
The building is an excellent example of modular technology being utilised to streamline the delivery process of the project. The project was constructed offsite in just 17 weeks. Delivery and installation on site was undertaken over the course of a week and was followed by 8 weeks onsite to complete services connections, landscaping and external works.
Once the footings were installed and the stumps were welded, the client proceeded to install the modules. In just three weeks the whole project was finished.
LED Sign Structure in Adelaide. SA
Custom frame, High bending moments, Restricted Access
When the client was assigned to do a LED Screen inside an existing Shed, Surefoot was the first option and the most viable, because no heavy machinery was required to install the foundations for the support mast.
Because of the high bending moment in the base of the structure, a frame using four SF-600 were selected after reviewing the soil test and the design by the structural engineer.
Only a minor cut in the existing slab and a revision on the location of existing services was needed to perform the installation.
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Once the Surefoot and the base frame were installed, the mast and the Screen were erected in no time.
The final structure can be seen from a long distance
Self Build House in Crewe, UK
Surefoot provided the foundations for low energy 2 storey timber frame self build in Crewe. The system included a precise threaded bar height adjustment to facilitate the levelling of the floor structure. The entire foundation was ready in less than 3 days and the carpenters immedately started to assemble the floor system. The client realized cost savings in access of £10.000 on this particular build.
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