How to Deliver a Fully Functional Greenfield ASRS Temperature-Controlled Automated Warehouse. The Project Director’s roadmap from business vision to official go-live

Delivering a fully automated ASRS temperature-controlled warehouse is one of the most demanding capital projects in modern food manufacturing. It is not simply about constructing a cold store or installing automation equipment. It is about creating a complete operational ecosystem where construction, refrigeration, automation, data systems, utilities, and people are integrated into one high-performing supply chain.

Over the years, I have found that successful projects are not driven by technology alone. They are driven by structure, governance, sequencing, and the discipline to connect every workstream from the earliest business discussion through to production stabilisation.

This is the delivery framework I would use for a greenfield ASRS cold store.

Phase 1: Define the Project Scope, Business Vision and Success Criteria

Every successful transformation begins with clarity.

Before any design work starts, the business must define what the facility is expected to achieve and how success will be measured.

At this stage, the focus is on establishing:

• Project scope

• Business objectives

• Capacity requirements

• Future operational model

• Success criteria and KPIs

  
  

This phase is about understanding the future business, not selecting equipment. The question is not “Which ASRS should we buy?” but “What supply chain capability do we need to create for the next 10 to 15 years?”

Phase 2: Establish Governance and Programme Control

Once the vision is defined, the next step is creating the programme structure that will control the entire transformation.

A robust Project Organisation Chart and Governance Revision 01 should be established, supported by:

• Project risk management

• Integrated project timeline

• Cost management and control

• Communication plan

• Business change management

• Scope of works and workstream responsibilities

• Daily and weekly activity planning linked to milestone delivery

At this stage, several critical activities must start immediately in parallel with the development phase:

• Construction strategy and planning permission

• ASRS technology investigation

• Refrigeration, trigeneration, and heat recovery studies

• Infrastructure and utilities assessment

  
  

These activities often sit on the critical path and cannot wait for detailed design to begin.

Phase 3: Development and Front-End Design

This is where the project starts to take shape.

The objective is to convert the business vision into a technically and operationally defined solution.

Key activities include:

1. Feasibility studies to assess the current state and future operational requirements

2. Front-End Engineering Design (FEED)

3. Centralisation of all requirements into a single URS / specification

4. Business change management: current vs. future operation

5. Progression of construction design through RIBA Stages 2 to 4

6. Infrastructure and utility permitting

7. Data management, product portfolio, and business integration studies

8. Automation concept development

9. Compliance and regulatory review

10. Preparation of legal and commercial documentation before any tendering begins

The quality of this phase largely determines the success of the execution phase

3.1 Defining the Functionality of the ASRS System Throughout the Project

One of the most important responsibilities of the Project Director is ensuring that the functionality of the future ASRS warehouse is defined progressively and validated at every stage of the programme.

The system is not designed in a single workshop and then built exactly as originally imagined. Its functionality evolves through a series of controlled stages, moving from business intent to fully proven operational performance.

3.2. Business Functionality

At the earliest phase, functionality is defined in business terms:

• What products will be stored?

• What temperatures are required?

• How many pallets must be handled per hour?

• What inventory accuracy is expected?

• What level of traceability is required?

• What service levels must be achieved?

  
  

At this point, the ASRS is described as a business capability rather than a technical solution.

3.3. Operational Functionality

During FEED, the functionality is translated into operational behaviour:

• Inbound pallet flow from production

• Outbound flow to dispatch

• FIFO / FEFO logic

• Quality hold and quarantine processes

• Rejected pallet handling

• Empty pallet management

• Peak production scenarios

• Recovery during equipment downtime

  
  

3.4. Technical Functionality

As detailed engineering progresses, the operational requirements become technical specifications:

• Number of aisles and storage locations

• Crane or shuttle configuration

• Conveyor routing

• Transfer points

• Sensors and identification systems

• Barcode / RFID strategy

• Safety interlocks

• Redundancy philosophy

• Performance requirements

These requirements are captured in the URS and developed into Functional Design Specifications (FDS).

3.5. Digital and Integration Functionality

Before procurement and software development, the digital behaviour of the system is defined:

• WMS transaction logic

• WCS sequencing

• ERP interfaces

• Inventory status management

• Batch and lot traceability

• Alarm management

• User roles and permissions

• Reporting and KPI requirements

  
  

3.6 FAT Functionality Validation

Factory Acceptance Testing validates that the designed functionality has been correctly implemented by suppliers through storage and retrieval tests, conveyor transfers, identification accuracy, safety functions, recovery sequences, and software communication checks.

3.7. SAT and Integrated Functionality

Site Acceptance Testing validates the functionality in the real operating environment by proving end-to-end pallet movement, production and dispatch integration, WMS and ERP transactions, throughput under realistic conditions, failure and restart scenarios, and operator interactions.

3.8. Operational KPI Validation

After commissioning, the focus shifts from technical performance to business performance:

• Pallet handling rate

• Inventory accuracy

• System availability

• Energy performance

• Dispatch reliability

• Labour efficiency

• Quality and traceability compliance

  
  

A successful ASRS project is therefore a continuous process of defining, refining, freezing, testing, validating, and proving functionality from the first business workshop through to stable operational performance.

Phase 4: Specification, RFQ and Procurement

With the development work completed, the project moves into procurement.

This phase is not only about obtaining prices. It is about selecting partners capable of delivering an integrated solution.

The programme should:

• Define the future business implementation protocol

• Develop the training and KPI monitoring strategy

• Issue RFQs and tender packages

• Evaluate technical and commercial submissions

• Select contractors and technology suppliers

• Finalise EPC, JCT, or local authority contracts

• Approve CAPEX, business case, and OPEX impacts

• Update live risk management (Revision 02)

• Update the integrated programme schedule (Revision 02)

• Confirm governance and reporting structure

• Place purchase orders and formally launch the project

At this point, the programme transitions from planning into delivery.

Phase 5: Project Execution

Execution is where governance, sequencing, and interface management become critical.

Detailed construction design continues while planning approvals and discharge of conditions are completed.

The programme must also secure:

• F10 notifications

• Utility permits

• Installation permits

• Site mobilisation approvals

In parallel, detailed design for manufacturing begins across all technology workstreams:

• Engineering and automation

• Refrigeration

• Infrastructure

• Construction

• Data management and integration

• Functional Design Specifications (FDS)

  
  

At the same time, the business implementation plan, training strategy, and KPI monitoring framework continue to develop.

Once the design is mature, the programme reaches a critical milestone:

• Design freeze

• Final FDS approval

• Manufacturing release

• Readiness for FAT

Phase 6: Construction and Infrastructure Delivery

Construction and technology installation must be carefully synchronised.

The first activities focus on enabling works, utilities, and infrastructure, followed by the main building works.

The typical sequence could be:

• Ground preparation and foundations

• ASRS floor installation and certification

• Structural steel and building envelope

• Insulated panels, doors, and cold store systems

• Refrigeration and environmental controls

This is one of the most critical coordination phases of the entire project. Collaboration between the construction contractor, ASRS supplier, refrigeration contractor, and infrastructure teams is essential.

All installations must be executed in the correct chronological order and in the most efficient sequence to avoid rework, access conflicts, and programme delays.

Phase 7: Factory Acceptance Testing (FAT)

Before equipment leaves the supplier facilities, FAT is carried out to reduce site risk.

Testing typically includes:

• Mechanical operation

• Safety systems

• Control logic

• Recovery scenarios

• WMS and software functionality

• Documentation and certification review

A disciplined FAT process prevents many costly site issues.

Phase 8: Site Installation and SAT

With the building and infrastructure sufficiently advanced, site installation begins.

Activities include:

• ASRS installation

• Conveyor installation

• Refrigeration completion

• Final utility connections

• Data and network integration

• Completion of offices, ancillary rooms, external works, car parks, HGV areas, and security systems

• Site Acceptance Testing (SAT) then validates the integrated system.

Phase 9: Commissioning, Testing and Business Readiness

This is the point where the project transforms from a construction site into an operational facility.

The full system is tested end-to-end, including:

• ASRS movements

• Conveyor operation

• WMS transactions

• ERP communication

• Throughput performance

In parallel, people and processes are prepared:

• Operator training

• Maintenance preparation

• Spare parts strategy

• SOP development

• Emergency response planning

  
  

User Acceptance Testing (UAT) and departmental functionality tests are also completed.

Business change behaviours, adoption, and performance are monitored and adjusted where required.

Phase 10: Production Trial and Stabilisation

Before official go-live, the complete business system is operated under real conditions.

A typical production trial runs for approximately one week with all major contractors and technology partners on site.

During this period:

• Performance is monitored

• Issues are rectified

• Systems are adjusted

• Retesting is completed

• Additional training is delivered

• SOPs are refined

  
  

This phase is critical for stabilising the operation before ownership is transferred fully to the business.

Phase 11: Transition, Go-Live and Project Closure

Following the production trial, a structured transition period is implemented.

For 2 to 4 weeks, one engineer from each major contracting company remains on site to support the operation, resolve emerging issues, and ensure knowledge transfer.

Once performance, safety, quality, and operational KPIs are achieved, the project reaches:

• Final documentation

• Sign-offs

• Certifications

• Official Go-Live

  
  

The project is formally closed only when the business can operate the facility independently and consistently at the required performance level

Conclusion

A successful greenfield ASRS temperature-controlled warehouse is not created by a single supplier or a single technology.

It is created by disciplined programme management, early business definition, rigorous front-end design, strong governance, integrated execution, and a relentless focus on operational readiness.

The real achievement is not the completion of a building.

It is the successful transition of people, processes, technology, and infrastructure into a fully operational, future-ready supply chain capability.

About the Author

Marian Sprinceana CEng MIMechE is a Transformation Programme and Project Director specialising in complex CAPEX programmes, greenfield manufacturing facilities, ASRS automated warehouses, WMS/ERP integration, smart factories, and manufacturing transformation across FMCG, food & beverage, pharmaceutical, and industrial manufacturing sectors.

With more than 20 years of experience delivering large-scale engineering and automation programmes, Marian focuses on turning ambitious business visions into fully operational manufacturing capabilities through strong governance, integrated execution, and practical leadership.

If you are planning a new ASRS facility, evaluating automation options, preparing a business case, or facing challenges with a complex transformation programme, I would be happy to connect and discuss your project.

📩 Get in touch: www.marianpm.co.uk