Prompt Details
Model
Chat - (gpt-5.5)
Token size
1,254
Example input
[ORGANIZATION_TYPE]: SaaS
[CORE_BUSINESS_SYSTEM]: Customer Onboarding
[CURRENT_WORKFLOW]: Lead signs contract → Account setup → Data migration → Integration → Team training → Go-live → Customer Success handoff
[CURRENT_PERFORMANCE_CHALLENGES]: Long onboarding time (30 days)
[PRIMARY_BUSINESS_OBJECTIVE]: Reduce onboarding time and increase the number of customers onboarded each month.
Example output
A. System Context Assessment
Business Model
B2B SaaS with annual subscription contracts.
Operational Structure
Sales
Customer Success
Implementation
Engineering
Support
Value Flow
Signed customer → Configure platform → Integrate systems → Train users → Customer goes live → Subscription revenue begins
Current Performance
20 customers onboarded/month
Average onboarding time: 30 days
Customer satisfaction: 7.8/10
Engineering utilization: 98%
Strategic Objective
Increase onboarding throughput without increasing headcount.
System Boundaries
Starts when contract is signed and ends when the customer is fully live.
Critical Assumptions
Engineering performs every integration.
Every customer follows the same onboarding path.
All integrations require custom work.
Performance Constraints
Limited engineering capacity
Large integration queue
Sequential approval process
System Performance Summary
The onboarding system is constrained by engineering availability, creating delays that slow revenue recognition and reduce customer satisfaction.
B. System Flow Analysis
Step
Capacity
Waiting Time
Resource Usage
Customer Impact
Contract Signed
High
0 days
Sales
Positive
Account Setup
High
1 day
Implementation
Low
Data Migration
Medium
3 days
Implementation
Moderate
Integration
Low
10 days
Engineering
Very High
User Training
High
2 days
Customer Success
Medium
Go-Live
Medium
1 day
Customer Success
High
Handoff
High
0 days
Support
Low
System Flow Map
Sales
↓
Account Setup
↓
Data Migration
↓
Engineering Integration ← PRIMARY BOTTLENECK
↓
Training
↓
Go Live
↓
Customer Success
C. Constraint Identification
Primary Constraint
Engineering Integration Team
Constraint Type
Capacity Constraint
Why It Is the Constraint
Highest queue length
Longest processing time
All projects wait here
Nearly full utilization
Every onboarding depends on this step
Impact
Revenue delayed
Customer frustration
Lower onboarding capacity
Slower company growth
D. Throughput Analysis
Current Throughput:
20 customers/month
Potential Capacity:
35 customers/month
Lost Throughput:
15 customers/month
Constraint Utilization:
98%
Average Queue Before Constraint:
10 days
Estimated Improvement After Optimization:
Throughput increases to 32–35 customers/month
Onboarding time reduced from 30 to 18 days
E. Constraint Optimization Plan
Step 1 – Identify
Engineering integrations are limiting throughput.
Step 2 – Exploit
Prioritize highest-value integrations.
Eliminate unnecessary customization.
Standardize common integration templates.
Reduce context switching.
Step 3 – Subordinate
Schedule implementation work around engineering capacity.
Prevent projects from reaching engineering before prerequisites are complete.
Pause low-priority customization requests.
Step 4 – Elevate
Hire one integration engineer.
Introduce low-code integration tools.
Automate repetitive configuration tasks.
Create reusable integration libraries.
Step 5 – Repeat
Once engineering is no longer the constraint, identify the next limiting factor, such as customer training or implementation.
F. Capacity Buffer & Flow Design
Capacity Buffer
Maintain approximately 20% spare engineering capacity for urgent requests.
Time Buffer
Reserve a 2-day buffer before go-live to handle unexpected issues.
Inventory Buffer
Keep a backlog of validated onboarding projects ready for engineering.
Resource Balancing
Shift administrative tasks from engineers to implementation specialists.
Work Sequencing
Prioritize:
High-value enterprise customers
Quick integrations
Standard onboarding packages
Complex custom implementations
G. Throughput Performance Dashboard
KPI
Target
Throughput Rate
35 customers/month
Constraint Utilization
85–90%
Lead Time
Under 20 days
Queue Time
Under 3 days
Flow Efficiency
Above 75%
Work in Progress
Maximum 12 projects
Review Cadence
Daily: Engineering queue review
Weekly: Throughput and bottleneck review
Monthly: Constraint reassessment
Quarterly: Capacity planning
H. Constraint Health Scorecard
Constraint Visibility: 9/10
Throughput: 6/10
Flow Stability: 7/10
Capacity Management: 5/10
Operational Agility: 7/10
Scalability: 6/10
Continuous Improvement: 8/10
Overall System Health Score
68/100
I. 90-Day Throughput Improvement Roadmap
Phase 1 (Days 1–30): Constraint Identification
Objective: Understand the bottleneck.
Key Actions:
Measure queue times.
Track engineering workload.
Map onboarding process.
KPIs:
Constraint utilization
Queue length
Risk: Incomplete operational data.
Phase 2 (Days 31–60): Constraint Optimization
Objective: Increase engineering throughput.
Key Actions:
Standardize integrations.
Automate repetitive tasks.
Prioritize high-impact work.
KPIs:
Integrations completed/week
Average integration time
Risk: Resistance to process changes.
Phase 3 (Days 61–75): System Alignment
Objective: Align upstream and downstream teams.
Key Actions:
Adjust onboarding schedules.
Improve cross-functional communication.
Reduce unnecessary work-in-progress.
KPIs:
Lead time
Handoff delays
Risk: Poor coordination between departments.
Phase 4 (Days 76–90): Continuous Improvement
Objective: Sustain gains and identify the next constraint.
Key Actions:
Review performance metrics.
Reassess system bottlenecks.
Launch ongoing improvement cycles.
KPIs:
Monthly throughput
Customer satisfaction
Revenue realization time
Risk: Focusing on local optimization instead of system-wide flow.
J. Executive Throughput Report
System Performance Summary
The primary limitation is engineering integration capacity. By focusing improvement efforts on this constraint, onboarding throughput can increase significantly without major increases in staffing.
Top 10 Operational Insights
Engineering is the system bottleneck.
High utilization creates long queues.
Standardization offers the biggest immediate gain.
Custom work delays all customers.
Flow is more important than resource utilization.
Queue time exceeds processing time.
Automation can reduce engineering effort.
Work-in-progress should be limited.
Faster onboarding accelerates revenue recognition.
Continuous constraint management supports sustainable growth.
Top 5 Constraints
Engineering integration capacity
Custom integration requests
Sequential approvals
Limited automation
Engineering context switching
Top 5 Throughput Improvements
Standardize integrations
Automate repetitive tasks
Prioritize high-value work
Balance workloads across teams
Add engineering capacity where justified
Top 5 Quick Wins
Remove unnecessary customization.
Introduce reusable integration templates.
Limit work-in-progress.
Improve engineering scheduling.
Review the constraint daily.
System Health Score
68/100
Most Important Constraint to Address First
Engineering integration capacity, as it governs the throughput of the entire onboarding system.
One Rule for All Future Operational Improvement Decisions
Always improve the system's current constraint before optimizing any non-constrained activity, because increasing the efficiency of non-bottlenecks does not increase overall throughput.
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GPT-5.5
Most businesses try to improve everything.
High-performing businesses improve the one constraint that limits the entire system.
This prompt applies Theory of Constraints (TOC) principles to identify bottlenecks, optimize throughput, improve operational flow, and increase business performance through systematic constraint management.
Instead of optimizing isolated tasks, you'll optimize the entire business system.
...more
Added over 1 month ago
