Seeking an Apprenticeship, Trainee Position, or Entry-Level Role in Civil Engineering
June 2024 - Age 16
2 weekends (plus specialist trades to finish)
Assist with relocating a non-load-bearing stud wall approximately 800 mm to improve the layout of two bedrooms, while maintaining dial accuracy, safely repositioning electrical services, and preparing the wall for plastering and final electrical installation.
Measurement and marking
Construction sequencing
Structural framing
Practical problem-solving
Teamwork
Electrical awareness
Material handling
Level checking
Dimensional accuracy
Mechanical fixing
Internal wall construction
Health & Safety awareness
Tape measure
Spirit level
Laser level
Cordless drill/driver
Impact driver
Utility knife
Plasterboard saw
Screwdrivers
Hammer
PPE
Timber stud wall
Plasterboard
Plasterboard screws
Acoustic insulation
Timber screws
Scrim tape
Electrical cables
Back boxes
Socket outlets
Remove plasterboard from one side of the existing wall
Disconnect and reposition electrical wiring
Remove fixings securing the stud wall
Relocate the wall approximately 800 mm
Check level, plumb and squareness throughout
Mechanically fix the wall in its new position
Install acoustic insulation
Install new electrical cable routes and socket positions
Fit new plasterboard and scrim tape
Prepare for plastering and final electrical installation
Successfully assisted with relocating an internal stud wall to improve the layout of two bedrooms. The completed project transformed an impractical room arrangement into two functional bedrooms capable of accommodating double beds, while demonstrating the importance of planning, dimensional accuracy, construction sequencing, and quality control during structural alteration.
Completed at the age of 16 as part of a family home reconfiguration, this project introduced me to practical engineering principles, including partition reconfiguration, dimensional accuracy, construction sequencing, electrical coordination, and quality control. Although relocating the wall initially appeared straightforward, the project demonstrated how careful planning and systematic problem-solving are often more important than the physical task itself.
The original bedroom layout created an awkward room shape that prevented even a single bed from being positioned without partially obstructing the entrance. Relocating the existing non-load-bearing stud wall by approximately 800 mm created two practical bedrooms, each capable of accommodating a standard double bed while making much better use of the available floor space.
Rather than demolishing and rebuilding the wall, the existing timber frame was relocated. One side of the plasterboard was retained to reduce unnecessary waste and minimise the amount of reinstatement work required.
The completed project not only improved the practicality of both bedrooms but also demonstrated how a relatively small internal reconfiguration can have a significant impact on the functionality and usability of a living space.
My role included removing plasterboard from one side of the wall, assisting with disconnecting and repositioning electrical cables, removing fixings, helping relocate the existing stud wall, checking level, plumb and squareness throughout the move, installing acoustic insulation, fitting new plasterboard and scrim tape, and preparing the wall for plastering and final electrical installation by specialist trades.
Before work began, the sequence of construction was planned so that electrical services could be safely repositioned before the wall was moved.
The relocation route was assessed in advance, although the limited clearance available meant numerous small obstructions had to be removed throughout the process before the wall could be repositioned safely.
As the aim was to relocate the existing wall rather than rebuild it, careful consideration was given to preserving as much of the original construction as possible. One face of the plasterboard was intentionally left in place to reduce waste and minimise reinstatement work, while regular checks using a spirit level and laser level were planned throughout the relocation to ensure the wall remained level, plumb, and square before being permanently secured.
Relocating the wall required each stage to be completed in the correct order. Electrical services first had to be exposed and moved before the wall could be released. Once relocated and secured, acoustic insulation, plasterboard, plastering, and final electrical installation could then be completed. Following the correct sequence prevented unnecessary rework and reduced the risk of damage. Following the correct sequence ensured that each stage could be completed efficiently without needing to undo previous work or reopen the wall after it had been boarded.
The wall had to be positioned accurately to achieve the desired room sizes while remaining level, plumb and square. A spirit level and laser level were used continuously throughout installation to verify alignment before the wall was permanently fixed. Regular measurements ensured the wall remained in its intended position as it was gradually relocated. Verifying the alignment throughout the project reduced the likelihood of cumulative errors and helped achieve an accurate final installation.
Although relocating the wall appeared straightforward, the majority of the work involved identifying and removing small constraints that prevented the structure from moving freely. Debris, fixings, and restricted clearances repeatedly prevented progress, requiring regular inspection, cleaning, and incremental adjustments to maintain alignment while protecting the existing construction. Several improvised techniques and tools were used to overcome obstacles without damaging the existing wall or surrounding finishes. This demonstrated that successful engineering often depends on adapting your approach rather than simply applying more force.
Relocating the wall required existing electrical cables, socket outlets, and lighting circuits to be repositioned before the wall could be moved. Additional socket positions were also installed to suit the revised room layout, demonstrating how internal alterations often require close coordination between different building trades. Careful planning ensured that cable routes were installed before the wall was enclosed with plasterboard. Preparing the electrical first fix in advance allowed the electrician to complete the final connections efficiently once plastering had been completed.
The wall had to be moved through an extremely tight gap, leaving very little clearance. Small obstructions repeatedly prevented movement, making patience and careful adjustments more important than force.
As the wall was relocated, level, plumb, and squareness had to be checked continuously using both a spirit level and a laser level before the wall could be permanently fixed. Frequent checks ensured that small movements did not develop into larger alignment errors as the relocation progressed. Taking the time to verify the wall at each stage helped achieve a straight, accurate installation without requiring significant adjustments later.
The project required construction work, electrical work and plastering to be completed in the correct sequence. Preparing the wall correctly at each stage ensured that the following trades could complete their work efficiently. Good communication and careful preparation helped ensure that each trade could begin work without unnecessary delays or rework. Completing each stage to a high standard contributed to a smooth progression from structural alteration through to the finished room.
✓ Wall position measured before fixing
✓ Spirit level used to check plumb
✓ Laser level used to verify alignment
✓ Wall checked for squareness before securing
✓ Electrical cable routes verified before plasterboarding
✓ Plasterboard securely fixed to the frame
✓ Work area kept organised throughout the project
This project demonstrated that work which initially appears simple can often become far more complex once construction begins. I learned the importance of planning each stage before starting, as relocating the wall required electrical work, structural fixing, plasterboarding, plastering, and final electrical installation to be completed in the correct sequence.
I also developed a greater appreciation for dimensional accuracy. Regularly checking the wall for level, plumb, and squareness using both a spirit level and laser level prevented small errors from becoming much larger problems later in the project.
Perhaps most importantly, I learned that successful construction often depends less on speed and more on patience, careful observation, and solving one problem at a time.
Measurement and marking
Internal wall construction
Mechanical fixing
Electrical awareness
Plasterboard installation
Construction sequencing
Dimensional accuracy
Level, plumb and squareness checking
Practical problem-solving
Professional Behaviours
Attention to detail
Patience and perseverance
Teamwork
Adaptability
Forward planning
Quality-focused working
Safe working practices
Communication with specialist trades
This project reinforced that successful engineering and construction depend on careful planning, accuracy, and attention to detail rather than simply working quickly. Although relocating the wall appeared to be a relatively straightforward task, the majority of the work involved overcoming numerous small constraints while maintaining the alignment and structural integrity of the existing timber-framed partition.
Looking back, I am particularly pleased with how consistently the wall was checked throughout the relocation process rather than relying on adjustments at the end. Seeing the completed rooms now able to comfortably accommodate double beds reinforced how a relatively small internal alteration could significantly improve the functionality of a space.
This project strengthened my understanding of construction sequencing, dimensional control, and multidisciplinary working, while reinforcing the value of methodical problem-solving when carrying out practical engineering tasks.