Capacity & Resource Model

Do we have enough laboratory capacity for what the operation requires?

The Capacity & Resource Model establishes how much sustainable analytical capacity the laboratory actually has, where it is constrained and what resources are required to meet current and future demand.

Client situation

When it is needed

For operations facing rising sample volumes, changing analytical demand, persistent bottlenecks, uncertain staffing requirements, equipment investment decisions or laboratory expansion.

Capacity logic

Installed capacity is not the same as sustainable operating capacity.

Illustrative model — not project performance data

7,500required samples / month
Drying10,000
Crushing9,000
Pulverising6,500
Fire Assay8,000
ICP11,000

Constraint: Pulverising · 6,500 samples/month
Test scenarios before selecting the lowest-risk configuration.

Sample-preparation equipment and operating environment
Sample-preparation equipment and operating environment — Chingola, Zambia. The photograph shows connected process stages; it is not evidence of the illustrative capacity values.

One operating system

What Sirius examines

  1. 01Demand
  2. 02Analytical Route
  3. 03Process Time
  4. 04Equipment Capacity
  5. 05Availability
  6. 06People
  7. 07Shifts
  8. 08Bottlenecks
  9. 09Turnaround

The purpose is to distinguish installed capacity from sustainable operating capacity. Equipment may appear sufficient on paper while downtime, shared resources, variable routes, staffing or queues prevent the required service.

Evidence base

Typical evidence reviewed

  • Sample volumes and demand patterns
  • Sample types and analytical routes
  • Turnaround requirements
  • Equipment capacities and cycle times
  • Equipment availability and downtime
  • Operating hours and shift patterns
  • Staffing by process and competency
  • Work-in-progress and queues
  • Reruns and reprocessing
  • Maintenance requirements
  • Planned future volumes
  • Proposed equipment or process changes

The work

What Sirius does

  1. 01

    Define the service requirement

    Establish normal, peak and future analytical demand.

  2. 02

    Map the analytical routes

    Identify the process steps and resources consumed by each sample stream.

  3. 03

    Establish effective capacity

    Calculate realistic capacity using actual cycle times, availability, operating hours and constraints.

  4. 04

    Identify bottlenecks

    Determine which processes, equipment or resources control overall capacity.

  5. 05

    Test operating scenarios

    Evaluate changes in shifts, staffing, equipment, maintenance, workflow or sample allocation.

  6. 06

    Define the required configuration

    Show which combination of resources can meet the required service level.

Decision support

What the client receives

  • Current analytical demand
  • Sustainable capacity by process
  • Critical bottlenecks
  • Equipment utilisation
  • Workforce requirements
  • Shift requirements
  • Capacity headroom
  • Future demand scenarios
  • Options for closing capacity gaps

The model gives management a defensible basis for decisions about people, equipment, shifts, workflow and capital expenditure.

Illustrative only

Example output

ILLUSTRATIVE MODEL — NOT PROJECT PERFORMANCE DATA

Required demand

7,500 samples/month

Process capacity

Drying — 10,000
Crushing — 9,000
Pulverising — 6,500
Fire Assay — 8,000
ICP — 11,000

System constraint

Pulverising — 6,500 samples/month

Scenario testing

Add equipment — 8,500
Add shift only — 7,200
Improve availability — 7,600
Workflow + maintenance + shift — 8,300

Management decision

Select the lowest-risk configuration capable of meeting required demand.

Product routing

When this product leads to another product

Capacity sufficient but performance poorLaboratory Performance Diagnostic

Multiple laboratories need comparisonLaboratory Network & Operating Model

New capability requiredBuild, Transition & Operate

Capacity requires ongoing monitoringAnalytical Performance System

Next step

Know your real laboratory capacity before committing more resources.

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