How to Get a Complete PostgreSQL Database Health Report During a Sev-1
Generate a complete PostgreSQL health report and fix Sev-1 incidents quickly.
The Moment Every DBA Knows Too Well
There’s a specific kind of silence during a Sev-1.
Monitoring graphs freeze. Dashboards lag.
Everyone waits for you to say something anything about what’s happening inside PostgreSQL.
It doesn’t matter how senior you are; that first minute is always the hardest.
In those moments, one truth becomes obvious:
You can’t fix what you can’t see.
And PostgreSQL does not forgive blind troubleshooting.
Why I Built a Single, Comprehensive PostgreSQL Health Report
After handling more than 950+ production incidents (70% involving PostgreSQL, most Sev-1), I noticed the same problem every time:
All the information you need to diagnose a Sev-1 exists, but it’s scattered:
A query for locks here
A stats check somewhere else
Autovacuum info in another place
Bloat scripts from a random gist
Replication checks from an old Slack message
During a Sev-1, this fragmentation costs real money and real time.
So I built something I wished existed earlier:
One SQL file that gives a full PostgreSQL health report in 30 seconds.
Not a toolkit.
Not random queries.
A structured, end-to-end report covering everything a DBA needs to understand what is happening right now.
The Framework Behind It (And Why It Works in Any Sev-1)
I designed the report around a simple principle learned from years of firefighting:
Incidents don’t happen in isolation they cascade.
A lock becomes a queue.
A queue becomes saturation.
Saturation becomes timeouts.
Timeouts become a customer notification.
If you don’t see the chain, you will chase symptoms instead of root causes.
So the SQL report follows the exact order of how problems unfold in PostgreSQL during a Sev-1.
Below is the polished breakdown of everything it covers, rewritten cleanly and clearly.
🚀 Get the PostgreSQL Health Report SQL file now →
Price 29$ with 60+ SQL Queries + Actionable Fix Commands
What the PostgreSQL Health Report Includes
1. Database Environment
Version, uptime, size, extensions, and connection load.
This sets the context quickly for any PostgreSQL performance analysis.
2. Critical Alerts
Immediate red flags such as:
Tables with 30%+ bloat
Tables never vacuumed/analyzed
Stale statistics impacting the planner
These are among the most common causes of sudden performance drops and unexpected PostgreSQL slowdowns.
3. Connection Pool Health
You see:
Usage percentage
Idle vs active connections
Aborted connections
Long-running transactions
4. Lock Contention
Shows:
Blocking queries
Victims
Lock types
Durations
When an incident is caused by lock chains, this predicts it earlier than dashboards.
5. Query Performance (via pg_stat_statements)
Identifies:
Slow queries
Queries consuming most CPU/IO
High load statements
Missing extensions or stats
Essential for PostgreSQL query tuning during a live incident.
6. Wait Events Analysis
Helps differentiate:
IO stalls
CPU saturation
Lock waits
LWLock pressure
Buffer pin waits
Most DBAs don’t check wait events early but this is where the real answers usually are.
7. Buffer Cache & IO Efficiency
Includes:
Cache hit ratios
IO timing
Background writer insights
Critical for diagnosing disk bottlenecks.
8. Table Bloat & Dead Tuples
Shows:
Dead tuple counts
Bloat percentage
High-churn tables
Vacuum urgency
This alone avoids multiple Sev-1 incidents every year.
9. Vacuum & Autovacuum Health
Checks:
Last vacuum
Last analyze
Autovacuum activity
Threshold readiness
Autovacuum misconfiguration is responsible for more PostgreSQL instability than people realize.
10. Index Usage Analysis
Highlights:
Unused indexes
Low-usage indexes
Missing indexes
Index size impact
Useful both for tuning and long-term cost optimisation.
11. Disk Usage
Shows:
Largest tables
Size breakdown
Space growth patterns
Essential during high-storage or IO-related incidents.
12. Replication Health
Checks:
Lag
Replication slots
Standby freshness
WAL pressure
All necessary for PostgreSQL streaming replication debugging.
13. Transaction Performance (TPS)
TPS, rollbacks, deadlocks indicators of application-level issues.
14. Checkpoints & WAL Behavior
Where many performance drops originate.
This section offers clarity on checkpoint frequency and WAL pressure.
15. Summary + Fix Commands
A clean summary of the database’s state and priority-sorted SQL fixes you can execute safely.
Why DBAs, SREs & Engineers Use This
This isn’t a product made to look impressive.
It was built inside real outages, under real pressure.
It helps you:
Understand the full system in 30 seconds
Respond to executives with clarity
Avoid chasing symptoms
Predict failures before they escalate
Build confidence during incidents
Troubleshoot with a consistent method
When you have a repeatable diagnostic engine, incidents stop feeling chaotic.
You stop reacting and start understanding.
Master High-Severity Incidents: My Checklist Mindset Playbook
After handling over 950 Sev-1 incidents for Fortune 100 customers at Microsoft, I realized something: when everything’s on fire, it’s easy to freeze or panic.
That’s why I developed a Checklist Mindset Playbook something I rely on every single time, and I want to share it with you.
Here’s what you’ll get:
A mental model I use to handle incidents without losing my head
How I stay calm and think clearly under pressure
My method to avoid panic debugging and make quick, confident decisions
Get 25+ practical SQL queries.
If you manage production systems, this mindset can change the way you respond to Sev-1 incidents trust me, it makes the chaos manageable.
After hundreds of high-stakes incidents, this checklist mindset is my secret weapon. And now, you can have it too.
I documented it here → [Playbook link]



This is an outstanding PostgreSQL health-report framework. As a Database Architect managing large production workloads, I appreciate how deeply the report covers real failure points from connection storms to lock chains, bloat, WAL pressure, and autovacuum inefficiencies. The inclusion of wait event analysis, replication lag insight, and actionable fix commands makes this far more practical than typical monitoring dashboards. Truly useful for DBAs, SREs, and anyone responsible for incident response.
This is brilliant work on productizing your incident response experince. The idea that lock contention cascades into saturation and then timeouts is sometihng I've lived through but never articulated this cleanly. Your approach of ordering diagnostics by failure progression rather than alphabetically or by category makes so much practical sense whentime is money. I'm curious how often youfind wait event analysis reveals the real issue vs what teams initially suspect from dashboards?