Search for the Right Document
-
Planning and Strategy
-
Requirements
-
- Customer Feedback Report
- Capacity Planning Report
- Stakeholder Input Record Example
- List of Customer Journeys
- Reverse Engineering: Legacy Inventory Management System
- Task Analysis: Customer Support Ticketing System
- Requirements Workshop: Employee Onboarding System
- Mind Mapping Session: Mobile Travel Planning App
- SWOT Analysis: New Food Delivery App
- Storyboarding Session: Mobile Health & Fitness App
- User Story Mapping Session: Online Grocery Shopping Platform
- Focus Group: Requirements Gathering for Fitness Tracking App
- Prototyping Session Example: E-Commerce Website
- Document Analysis Example: Hospital Management System Requirements
- Observation Session: Warehouse Operations
- Survey: E-Learning Platform Requirements
- Workshop Session Example: Requirements Gathering for Mobile Banking App
- Interview Session Example: Requirements Gathering for CRM System
- Event Storming Session: Retail Order Management System
- Generate Requirements from Meeting Transcripts
- Requirements Definition Process Example
- ISO/IEC/IEEE 29148 Systems and Software Requirements Specification (SRS) Example Template
- Show all articles ( 7 ) Collapse Articles
-
- Customer Requirement Document (CRD)
- Customer Journey Map
- Internal Stakeholder Requirement Document (ISRD)
- Internal System Use Case Example: CI/CD System
- User Stories & Acceptance Criteria
- Technical Specification Document Example
- BDD Scenarios Example for User Login
- Non-Functional Requirements Example
- Functional Requirements Specification Example
- Use Case Example: User Login
-
-
Communication
-
Design
- Functional Specification for Inventory Management Workload
- Technical Specification for Inventory Management System
-
- Overview of Design Diagrams
- High-Level System Diagram Standards
- User-Flow Diagram Standards
- System Flow Diagram Standards
- Data-Flow Diagram (DFD) Standards
- Sequence Diagram Standards
- State Diagram Standards
- Flowchart Standards
- Component Diagram Standards
- Network Diagram Standards
- Deployment Diagram Standards
- Entity-Relationship Diagram (ERD) Standards
- Block Diagram Standards
-
Operations
-
-
- Creating a Visualization Dashboard Guide
- Business Outcome Metrics Dashboard Guide
- Trace Analysis Dashboard
- Dependency Health Dashboard
- Guidelines for Creating a Telemetry Dashboard
- Guidelines for Creating a User Behavior Dashboard
- Improvement Tracking Dashboard
- Customer Status Page Overview
- Executive Summary Dashboard Overview
- Operations KPI Dashboard Example
- Stakeholder-Specific Dashboard Example
- Business Metrics Dashboard Example
- System Health Dashboard Example
- Guide for Creating a Dependency Map
-
-
-
- Event Management Policy Example
- Incident Management Policy
- Problem Management Policy
- Example Training Materials for Escalation
- Runbook Example: Incident Management with Escalation Paths
- Escalation Path Document Example
- Incident Report Example: Failed Deployment Investigation
- Incident Playbook Example: Investigating Failed Deployments
- Contingency Plan for Service Disruptions
-
-
-
Testing
-
Development
< All Topics
Print
Resource Optimization Strategy Example
PostedMarch 29, 2025
UpdatedMarch 29, 2025
ByKevin McCaffrey
ID: SUS_SUS3_1_resource-optimization-strategy
Code: SUS3_1
Optimizing software and architecture for asynchronous and scheduled jobs is vital for maximizing resource utilization and minimizing waste. By implementing queue-driven systems, you can balance workloads that arrive at different times, reducing idle compute time. These systems allow jobs to be processed only when needed, which avoids over-provisioning and under-utilizing resources. Additionally, consider:
- Leveraging Serverless Functions: Trigger functions on demand instead of running servers 24/7, thus lowering overall energy consumption.
- Implementing Scheduled Jobs: Automate recurring tasks (e.g., nightly data processing) at off-peak times to make better use of available capacity.
- Monitoring Usage and Scaling Down: Continuously measure resource usage and schedule downtime for non-critical systems.
Together, these patterns ensure deployed resources are consistently and efficiently utilized, leading to lower carbon footprints and more effective resource management.
Table of Contents