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Geographic Workload Placement Policy Example
PostedMarch 29, 2025
UpdatedMarch 29, 2025
ByKevin McCaffrey
ID: SUS_SUS2_3_geographic-workload-placement-policy
Code: SUS2_3
Optimizing the geographic placement of workloads can drastically minimize the carbon footprint of network traffic. By deploying services closer to your end-users, you can reduce data travel distances, leading to lower latency, energy consumption, and better alignment of capacity to demand.
Purpose
This policy provides guidelines for strategically placing cloud workloads in regions that:
- Minimize environmental impact by reducing data transfer distances.
- Improve user experience via lower latency.
- Optimize resource usage by matching capacity with regional demand trends.
Key Considerations
- Data Residency & Compliance: Ensure your chosen regions comply with relevant data privacy and sovereignty regulations.
- Energy Efficiency: Favor AWS regions using renewable or low-carbon energy, where possible, to reduce overall environmental impact.
- Network Proximity: Assess traffic patterns to place workloads closest to the bulk of your user base or data-intensive operations.
- Scalability: Use on-demand scaling in each region to dynamically match capacity to real-time service needs.
Implementation Steps
- Analyze historical and projected traffic data to determine optimal regions for hosting workloads.
- Leverage AWS services (such as Amazon CloudFront or AWS Global Accelerator) to route user traffic to the nearest region.
- Implement automated scaling policies to adjust resource allocation based on regional demand fluctuations.
- Continuously monitor energy usage metrics and carbon intensity data for each region to refine your placement strategy.
By following these guidelines, you will be able to align your cloud resources to match demand across diverse geographies, thereby reducing latency, cutting unnecessary data transfers, and minimizing your organization’s carbon footprint.
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