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2000 Tonnes or more!
Why modularisation decisions should
not be based on cost and size alone


                         Dr Neveen Moussa
            Principal – Sinclair Knight Merz
           Contact: nmoussa@skm.com.au
Topics covered
   About SKM
   Why modularise and the benefits of
   modularisation.
   A methodology for “right sizing” your
   modularisation decision.
   Some final thoughts.
About Sinclair Knight Merz
    Global engineering services & project
    delivery firm
    Established 1964 in Sydney, Australia
    Annual revenue of over A$1B
    Employs 6500 personnel globally
    Operates across four market areas
    (Business Units):
•    Water & Environment, Mining & Metals, Buildings &
     Infrastructure, Power & Industry
    On track to reach goal of becoming a
    Global Top 10 Firm within 5 years, as
    measured by the benchmark
    Engineering News Record
About Sinclair Knight Merz


                                     SHANGHAI




 Working with our clients to “deliver a positive
     and enduring impact on the world”
SKM Projects in China
WHERE HAS SKM WORKED IN CHINA?
Why Modularise?
“Modularisation has the potential to enhance
project outcomes for all stakeholders (owner,
project delivery team, fabricators, contractors,
suppliers), whist offering the opportunity to
reduce consumption of resources and promote
sustainability for future generations”.
Modularisation Trends
                                               Mass Module Build
                                                   Shipyard
                                                Mass production

                                   Overseas Module Build
                                       Sea transport
                                       Specialist yard

                         Local Module Build
                           Road transport
                             Local yard

              Site Pre-Assembly Build
          Minor workshop assemblies
          Off plot construction facility      Modularisation must provide
     Site Stick Build                         a benefit (at an acceptable
      Build in place
 STD construction practise                    cost and level of risk) to the
                                              project.
The benefits of Modularisation
Lower material rates
Lower labour rates
More skilled labour available
Controlled environment - higher labour
productivity & quality
Less man-hrs on site
Smaller construction camp/ Lower FIFO costs
Allows fabrication to start early.
Construction safety is improved
Reduction in land disturbance/ impact on
community/environment
Compressed construction schedule
All weather related risks minimised
Reduced site commissioning time
Early start up.
Quantifying the benefits of
Modularisation         Risk
                                                                                  Traditional
                                                                                  on-site
                                                          mitigation
                                                                                  “stick build”
                                                          costs        Benefits
                    Off-site                      Tax &                           Cost premium
                                  Additional
                    Inspection/   coordination    duty                                    Cost
                    QA/QC         / engineering                                           advantage
                    costs         costs
        Transport
        costs
Module
Yard costs
Right sizing

  Stick Build Execution                                Fully Modularised Execution
Cheap skilled labour                    optimum    Difficult execution
Local fabrication centre                           environment remoteness,
Equipment/bulks sourced locally
                                        position   weather, etc)
Brownfields works                                  No local fabrication capability
No port near by                                    Skilled labour shortages
Port structural/spatial/tidal constraints          High cost of labour
Infrastructure constraints                         Compressed schedule
Local content laws                                 Safety drivers
IR sabotage threats                                IR delay threats
Other logistical challenges                        Sustainability drivers
Transport equipment shortages

          Arriving at the optimal position is project
          specific and requires a BUSINESS CASE.
Methodology for Business Case Development
  Step 0 – Define your modularisation drivers
  Define your project’s modularisation drivers

  Step 1 – Location & Transport Considerations
  1.   Define fabrication location and transport and logistics constraints

  Step 2 – Supply Chain Considerations
  2. Understand supply chain capabilities, capacities and limitations.

  Step 3 – Select Pre-assembly/Module sizes / Fabrication location
  3.   Apply technical/construction knowledge to derive multiple module configurations (splits).
  4.   Economic evaluation of cost, man-hours, schedule impacts & risks for each split &
       location.
  5.   Select optimum split and location.
 Step 4 – Develop Overall Modularisation Strategy & Execution Plan
  6.Collate fabrication selections and finalise overall pre-assembly strategy.
  7.Develop shop detailing, contracting and commercial strategies.
  8.Develop overall execution strategy & further develop PEP, schedule and estimate.
Methodology for Business Case Development
   Step 0 – Define modularisation drivers & set-up a modularisation team
   Define your project’s modularisation drivers and set-up a team t manage process


• Set up a dedicated multi-disciplinary team with strong
  modular skill sets.
• Define project drivers with client, document, prioritise
  and communicate them to all team member as they will
  dictate your decisions & designs.
• Understand that modular may come at a premium
  depending on labour cost at site location and transport
  distances.
• Bring the engineers along on the journey.
• Plan the details early.
• Don’t make change without understanding their full
  impact.
Methodology for Business Case Development
    Step 1 – Location & Transport Considerations
   1.   Define fabrication location and transport and logistics constraints

 • Identify alternative fabrication centres both local and overseas.
 • Survey site constraints in terms of labour availability/skills, rates,
   productivity, IR, local content laws, weather, environmental issues,
   permits, safety issues.
 • Site access, elevations, laydown areas, heavy lift footprint.
 • Survey all transport routes for physical constraints: powerlines, bridges,
   roads, turning circles, etc.
 • Look at available public Wharfs (structural strength) or alternative
   Material loading/off -loading facilities.
 • Identify tidal movements/depth and dredging potential at offloading port.
 • Identify vessel/barge/tug limitations: speed, draft, deck capacity, ability
   to discharge and acceleration characteristics.
 • Identify land transport axle limitations.
 • Define transport envelopes maximum & optimum) – these dictate
   maximum module sizes for each route.
Why modularization should not be based on cost and size alone
Methodology for Business Case Development
 Step 2 – Supply Chain Considerations
 2. Understand supply chain capabilities, capacities and limitations.

 • Survey alternative fabrication centres both local and
   overseas.
 • Survey market for available lifting/transport
   equipment
 • Survey market for available ships
 • Understand quarantine & customs requirements
 • Ambient road laws, vehicle size constraints & local
   police availability, if escorts required.
 • Province requirements/lead time for permits.
 • Other community/environmental risks.
Methodology for Business Case Development
     Step 3 – Select Pre-assembly/Module sizes / Fabrication location
     3.   Apply technical/construction knowledge to derive multiple module configurations (splits).
     4.   Economic evaluation of cost, man-hours, schedule impacts & risks for each split &
          location.
     5.   Select optimum split and location.
    Technical Considerations:
•    Design to eliminate unproductive hours and address safety by examining ways to minimise:
      –    workforce congestion.
      –    manual handling.
      –    working at heights.
      –    scaffolding.
•    Modularise around equipment not around structural steel and considering installation sequence.
•    Modularise only where economic, i.e. do not ship air.
      –    Where modularisation is not possible assemble at ground level and utilise flat packs/panels.
•    Optimise shipping by ensuring that modules fit standard vessels.
•    Optimise cranage usage - consider lifts (single vs. dual) by conventional (vs. specialised) cranes and
     four point lifts.
Methodology for Business Case Development
Technical Considerations (continued) :
 •   Assemble modules including grid mesh, handrail & plate work c/w liners.
 •   Assemble modules with cable tray, brackets, light and accessories.
 •   Product bins to be shipped c/w liners.
 •   Loose steel to be shipped as large nested flat-pack panels including
     grid mesh and pre-fabricated handrail panels .
 •    Maximise personnel access by including flooring, handrail, electrical access
     for cable installation, and complete access towers.
 •   Sub-stations & control rooms and transformer kiosks (c/w distribution panels)
     to be fitted out as transportable units.
 •   Consider alignment issues
 •   Consider construction sequencing and module placement
 •   Consider crane movement and laydown areas.
 •   Temporary steel should be part of the structure as much as possible.
 •   Make allowances for grillage, sea fastening, temp steel, double
     columns/module connections Expect to see more steel quantities.
 •   Adopt standard connection details, lifting points/lugs.
Example of splits
Economic Evaluation
Man-hour comparisons
Economic Evaluation
Cost comparisons: based on data sourced by procurement
Schedule Evaluation

Undertake schedule
comparisons with a baseline
stick build timeline for all
options considered based on
reduced man-hours.
Quantify schedule benefits.
Risk Evaluation
• If you think modularisation is
  business as usual THINK AGAIN!
• Plan, plan, and then plan. Stuff ups
  are too messy and too costly!
• Do it during FEL2 or earlier otherwise
  you risk schedule, budget and rework.
• The following risks should be assessed:
   •   Technical
   •   Multiple locations/languages/currencies
   •   Transport & logistics
   •   Material management
   •   Lifting
   •   Laws, regulations, permits
   •   Skills in modularisation
   •   Interfaces
Methodology for Business Case Development
Step 4 – Develop Overall Modularisation Strategy & Execution Plan
 6.Collate fabrication selections and finalise overall pre-assembly strategy.
 7.Develop shop detailing, contracting and commercial strategies.
 8.Develop overall execution strategy & further develop PEP, schedule and estimate.

 • Modularisation team to use a structured approach to assess each
 option looking at iterations of:
     • Cost models
     • Schedules
     • Risks
 •May assign weights to each attribute
 •May use simulation to arrive at optimal decision per facility
 •Collate all selections and rationalise to align strategy with market
 conditions.
 •Develop strategy and execution plan accordingly.
Final thoughts
The inland nature of most mining projects will limit modularisation
opportunities to pre-assemblies
A structured approach to arrive at an optimal modular decision aligned
with market conditions will be required.
Focus will have to be on “right-sizing” of modules to suit project drivers
and constraints.
Pre-assembly density will be a key factor and will be largely
determined by the location of equipment fabrication
Procurement of bulk and special materials and equipment should not
be fixed until modular decision is made
Areas that do not justify full assemblies/modules will be done as
prefabricated panels/flat packs, e.g. conveyors.
Anticipated benefits may not be fully realised if not executed
effectively.

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Why modularization should not be based on cost and size alone

  • 1. 2000 Tonnes or more! Why modularisation decisions should not be based on cost and size alone Dr Neveen Moussa Principal – Sinclair Knight Merz Contact: nmoussa@skm.com.au
  • 2. Topics covered About SKM Why modularise and the benefits of modularisation. A methodology for “right sizing” your modularisation decision. Some final thoughts.
  • 3. About Sinclair Knight Merz Global engineering services & project delivery firm Established 1964 in Sydney, Australia Annual revenue of over A$1B Employs 6500 personnel globally Operates across four market areas (Business Units): • Water & Environment, Mining & Metals, Buildings & Infrastructure, Power & Industry On track to reach goal of becoming a Global Top 10 Firm within 5 years, as measured by the benchmark Engineering News Record
  • 4. About Sinclair Knight Merz SHANGHAI Working with our clients to “deliver a positive and enduring impact on the world”
  • 5. SKM Projects in China WHERE HAS SKM WORKED IN CHINA?
  • 6. Why Modularise? “Modularisation has the potential to enhance project outcomes for all stakeholders (owner, project delivery team, fabricators, contractors, suppliers), whist offering the opportunity to reduce consumption of resources and promote sustainability for future generations”.
  • 7. Modularisation Trends Mass Module Build Shipyard Mass production Overseas Module Build Sea transport Specialist yard Local Module Build Road transport Local yard Site Pre-Assembly Build Minor workshop assemblies Off plot construction facility Modularisation must provide Site Stick Build a benefit (at an acceptable Build in place STD construction practise cost and level of risk) to the project.
  • 8. The benefits of Modularisation Lower material rates Lower labour rates More skilled labour available Controlled environment - higher labour productivity & quality Less man-hrs on site Smaller construction camp/ Lower FIFO costs Allows fabrication to start early. Construction safety is improved Reduction in land disturbance/ impact on community/environment Compressed construction schedule All weather related risks minimised Reduced site commissioning time Early start up.
  • 9. Quantifying the benefits of Modularisation Risk Traditional on-site mitigation “stick build” costs Benefits Off-site Tax & Cost premium Additional Inspection/ coordination duty Cost QA/QC / engineering advantage costs costs Transport costs Module Yard costs
  • 10. Right sizing Stick Build Execution Fully Modularised Execution Cheap skilled labour optimum Difficult execution Local fabrication centre environment remoteness, Equipment/bulks sourced locally position weather, etc) Brownfields works No local fabrication capability No port near by Skilled labour shortages Port structural/spatial/tidal constraints High cost of labour Infrastructure constraints Compressed schedule Local content laws Safety drivers IR sabotage threats IR delay threats Other logistical challenges Sustainability drivers Transport equipment shortages Arriving at the optimal position is project specific and requires a BUSINESS CASE.
  • 11. Methodology for Business Case Development Step 0 – Define your modularisation drivers Define your project’s modularisation drivers Step 1 – Location & Transport Considerations 1. Define fabrication location and transport and logistics constraints Step 2 – Supply Chain Considerations 2. Understand supply chain capabilities, capacities and limitations. Step 3 – Select Pre-assembly/Module sizes / Fabrication location 3. Apply technical/construction knowledge to derive multiple module configurations (splits). 4. Economic evaluation of cost, man-hours, schedule impacts & risks for each split & location. 5. Select optimum split and location. Step 4 – Develop Overall Modularisation Strategy & Execution Plan 6.Collate fabrication selections and finalise overall pre-assembly strategy. 7.Develop shop detailing, contracting and commercial strategies. 8.Develop overall execution strategy & further develop PEP, schedule and estimate.
  • 12. Methodology for Business Case Development Step 0 – Define modularisation drivers & set-up a modularisation team Define your project’s modularisation drivers and set-up a team t manage process • Set up a dedicated multi-disciplinary team with strong modular skill sets. • Define project drivers with client, document, prioritise and communicate them to all team member as they will dictate your decisions & designs. • Understand that modular may come at a premium depending on labour cost at site location and transport distances. • Bring the engineers along on the journey. • Plan the details early. • Don’t make change without understanding their full impact.
  • 13. Methodology for Business Case Development Step 1 – Location & Transport Considerations 1. Define fabrication location and transport and logistics constraints • Identify alternative fabrication centres both local and overseas. • Survey site constraints in terms of labour availability/skills, rates, productivity, IR, local content laws, weather, environmental issues, permits, safety issues. • Site access, elevations, laydown areas, heavy lift footprint. • Survey all transport routes for physical constraints: powerlines, bridges, roads, turning circles, etc. • Look at available public Wharfs (structural strength) or alternative Material loading/off -loading facilities. • Identify tidal movements/depth and dredging potential at offloading port. • Identify vessel/barge/tug limitations: speed, draft, deck capacity, ability to discharge and acceleration characteristics. • Identify land transport axle limitations. • Define transport envelopes maximum & optimum) – these dictate maximum module sizes for each route.
  • 15. Methodology for Business Case Development Step 2 – Supply Chain Considerations 2. Understand supply chain capabilities, capacities and limitations. • Survey alternative fabrication centres both local and overseas. • Survey market for available lifting/transport equipment • Survey market for available ships • Understand quarantine & customs requirements • Ambient road laws, vehicle size constraints & local police availability, if escorts required. • Province requirements/lead time for permits. • Other community/environmental risks.
  • 16. Methodology for Business Case Development Step 3 – Select Pre-assembly/Module sizes / Fabrication location 3. Apply technical/construction knowledge to derive multiple module configurations (splits). 4. Economic evaluation of cost, man-hours, schedule impacts & risks for each split & location. 5. Select optimum split and location. Technical Considerations: • Design to eliminate unproductive hours and address safety by examining ways to minimise: – workforce congestion. – manual handling. – working at heights. – scaffolding. • Modularise around equipment not around structural steel and considering installation sequence. • Modularise only where economic, i.e. do not ship air. – Where modularisation is not possible assemble at ground level and utilise flat packs/panels. • Optimise shipping by ensuring that modules fit standard vessels. • Optimise cranage usage - consider lifts (single vs. dual) by conventional (vs. specialised) cranes and four point lifts.
  • 17. Methodology for Business Case Development Technical Considerations (continued) : • Assemble modules including grid mesh, handrail & plate work c/w liners. • Assemble modules with cable tray, brackets, light and accessories. • Product bins to be shipped c/w liners. • Loose steel to be shipped as large nested flat-pack panels including grid mesh and pre-fabricated handrail panels . • Maximise personnel access by including flooring, handrail, electrical access for cable installation, and complete access towers. • Sub-stations & control rooms and transformer kiosks (c/w distribution panels) to be fitted out as transportable units. • Consider alignment issues • Consider construction sequencing and module placement • Consider crane movement and laydown areas. • Temporary steel should be part of the structure as much as possible. • Make allowances for grillage, sea fastening, temp steel, double columns/module connections Expect to see more steel quantities. • Adopt standard connection details, lifting points/lugs.
  • 20. Economic Evaluation Cost comparisons: based on data sourced by procurement
  • 21. Schedule Evaluation Undertake schedule comparisons with a baseline stick build timeline for all options considered based on reduced man-hours. Quantify schedule benefits.
  • 22. Risk Evaluation • If you think modularisation is business as usual THINK AGAIN! • Plan, plan, and then plan. Stuff ups are too messy and too costly! • Do it during FEL2 or earlier otherwise you risk schedule, budget and rework. • The following risks should be assessed: • Technical • Multiple locations/languages/currencies • Transport & logistics • Material management • Lifting • Laws, regulations, permits • Skills in modularisation • Interfaces
  • 23. Methodology for Business Case Development Step 4 – Develop Overall Modularisation Strategy & Execution Plan 6.Collate fabrication selections and finalise overall pre-assembly strategy. 7.Develop shop detailing, contracting and commercial strategies. 8.Develop overall execution strategy & further develop PEP, schedule and estimate. • Modularisation team to use a structured approach to assess each option looking at iterations of: • Cost models • Schedules • Risks •May assign weights to each attribute •May use simulation to arrive at optimal decision per facility •Collate all selections and rationalise to align strategy with market conditions. •Develop strategy and execution plan accordingly.
  • 24. Final thoughts The inland nature of most mining projects will limit modularisation opportunities to pre-assemblies A structured approach to arrive at an optimal modular decision aligned with market conditions will be required. Focus will have to be on “right-sizing” of modules to suit project drivers and constraints. Pre-assembly density will be a key factor and will be largely determined by the location of equipment fabrication Procurement of bulk and special materials and equipment should not be fixed until modular decision is made Areas that do not justify full assemblies/modules will be done as prefabricated panels/flat packs, e.g. conveyors. Anticipated benefits may not be fully realised if not executed effectively.