You’re a seasoned DBA who just ran your inventory query and saw the red flags: some production servers are still on SQL Server 2016. The result was unmistakable: Microsoft officially ended extended support for SQL Server 2016 on July 14, 2026. As of that date, “Microsoft no longer provides regular security updates or technical support” for the product. In practical terms, any new vulnerabilities in 2016 will remain unpatched, and Microsoft won’t open support tickets for it.
Worse, the numbers show this is still widespread. Brent Ozar Unlimited’s April 2026 ConstantCare report indicates 9% of monitored production instances were running 2016 (down just 1 point). (By contrast, an unverified rumor of “~20%” turned up with no source; we’ll stick with Ozar’s data.) In other words, a significant chunk of deployments are exposed.
Microsoft lays out three paths for these legacy systems: migrate to Azure SQL (PaaS), upgrade on-premises to SQL Server 2025, or buy Extended Security Updates (ESU) for 2016. This article will unpack exactly what ended in July 2026, why any remaining 2016 instances are a ticking time bomb, and what each migration path involves. Along the way we’ll point out common mistakes and mitigation steps, plus the skills you’ll need, including those covered in programs like the Refonte Learning Database Administrator Program.
What Actually Ended on July 14, 2026
On July 14, 2026, extended support for SQL Server 2016 ended. Microsoft’s blog bluntly states that after this date “SQL Server 2016 has reached end of support” and will receive no more updates. In concrete terms, that means:
· Security updates stop: No new security patches or bug fixes will ever be released for SQL 2016. Any vulnerabilities discovered after July 2026 will never be fixed on 2016.
· No vendor support: Microsoft will not open support cases or provide fixes for SQL 2016. The database engine will continue to run, but entirely without a support contract. It becomes a “fixed target”: it works as-is, but without any safety net.
· Compliance blowback: Unsupported software is a compliance fail. Industry standards (PCI, HIPAA, etc.) and auditors generally require that systems be on a supported version. Northdoor’s lifecycle guide warns: after July 2026, “no more security patches, bug fixes, or technical support” will be available, making 2016 databases fail routine audits.
In short, after July 14 there is literally nothing new for SQL Server 2016 unless you buy ESUs (see below). Your only choices are to migrate or harden the system.
Why 9% of Production Instances Are Still on SQL Server 2016
Given all that, why is nearly one in ten servers still on 2016? Several factors conspire to keep legacy databases alive:
· Legacy dependencies: Many line-of-business applications (ERP, CRM, reporting, custom apps) were built and certified on SQL 2016. Upgrading requires deep testing of those apps, which teams often defer. If a critical application vendor only supports SQL 2016, the database tends to stay on 2016.
· Upgrade inertia: A major database upgrade is a project. Teams need time, budget, and often new hardware. It’s common to postpone an update until “we have a maintenance window”; sometimes that window never arrives until forced by an EOL deadline.
· Compatibility testing overhead: Upgrading or migrating a database isn’t just a click. One analysis notes that a side-by-side migration or in-place upgrade requires thorough regression testing of everything on top of the DB: linked servers, SQL Agent jobs, SSIS/SSRS packages, ORMs, drivers, collation settings, TLS versions, etc. The testing “takes weeks” even if the install is quick. Many teams underestimate this effort.
· Familiarity & turnover: When a DBA or team is comfortable with an old platform, change is resisted. If knowledge of an upgrade plan is lost when staff change, the old instances can linger on. Some organisations ran 2016 under extended support for years as a “free” bonus, and only now realize they must act.
· Confirmed install base: In fact, Brent Ozar’s Spring 2026 survey confirms a large installed base: 9% of production SQL instances were on 2016. This is our most reliable figure. (A now-circulating “one in five” statistic could not be independently verified, and conflicts with Ozar’s data.) It means the problem is widespread: almost one of every ten databases you manage could be unsupported.
Why the "1 in 5" Claim Doesn’t Hold Up
You may have seen headlines claiming “roughly 20%” of SQL Servers were still on 2016. We found no credible source for that. In fact, the only named, dated data we have is Brent Ozar’s report showing 9%. No published survey or Microsoft data substantiates 20%. Without a primary source, we stick with the 9% figure, which aligns with our own experience and other telemetry.
The Three Paths Microsoft Recommends
Microsoft advises that remaining SQL 2016 workloads take one of three routes:
· Migrate to Azure SQL (PaaS): Move databases to Azure SQL Database or Managed Instance. This gives you a fully managed platform where Microsoft handles patching, backups, and HA. It requires moving your data to Azure (and possibly adjusting firewall/network settings), but you offload the infrastructure. Azure SQL is “versionless”: you instantly get the latest engine with minimal admin.
· Upgrade to SQL Server 2025: Install the newest on-premises SQL Server. This is the traditional upgrade path (in-place or side-by-side). It resets your support clock (SQL Server 2025 will be supported into the 2030s) and brings new features and performance. The downside is the work and cost of upgrading: testing everything against 2025, installing new licenses (if you lack Software Assurance), and switching over applications.
· Extended Security Updates (ESU): Purchase Microsoft’s ESU program to keep getting security patches on SQL 2016. This is a temporary bridge, not a permanent solution. ESU is only sold for Enterprise and Standard editions (Express/Web/Developer editions are ineligible), and it covers only security fixes (critical and important) through July 17, 2029.
Each path has trade-offs. Below we unpack ESUs and the two migration options in detail.
Extended Security Updates, Explained
ESUs are Microsoft’s stop-gap for out-of-support products. They work like this: you sign a new contract each year to continue receiving security updates only. Key points:
· Scope: ESUs provide only critical (and some important) security patches. No non-security fixes, performance improvements, or support are included. Think of ESU as a “security patch subscription” only. After July 17, 2029 (three years out), even ESUs end and no updates will ever come.
· Eligibility: Only SQL Server 2016 Enterprise and Standard editions can buy ESUs. If you’re running Express, Web, or Developer edition, there’s no ESU option. You also need active Software Assurance (or certain subscription licenses) to purchase ESUs on-premises.
· Duration: ESUs are sold on a year-by-year basis. You must renew each year (up to 3 times total for 2016). Officially, ESUs for SQL 2016 cover “up to three years” past the end-of-support date. In practice, this means ESUs are available from mid-2026 through mid-2029.
· Licensing: ESU pricing is per-processor-core. You pay for the same number of v-cores as your SQL Server uses, with a minimum 4-core charge per machine.
Keep in mind ESU is meant as a last resort. Microsoft itself calls it a temporary bridge to buy time while you migrate. As one Microsoft partner notes, ESU pricing is tuned to be manageable for the first year and punishing after that (more below). If you rely on ESUs, plan migration quickly rather than rolling into year 2 and 3.
What ESU Actually Costs
ESUs are expensive, with a steep front-loaded price curve. Multiple industry analyses agree on roughly this scale:
ESU Year | Cost (as % of original license) |
Year 1 | ~75% |
Year 2 | ~150% |
Year 3 | ~300 to 400% |
In plain terms, a 3-year ESU commitment ends up costing several times the price of a new SQL Server license. For example, one published scenario estimates a 3-year ESU on a 16-core Datacenter edition at roughly $20,300 (about $5K/year). That number is a rough analysis, not official, so it should be verified against Microsoft’s pricing details.
The reason for this escalation is deliberate. GMWARE’s analysis puts it bluntly: Microsoft “prices ESUs to be survivable for exactly one budget cycle and punishing after that.” In other words, year 1 is a heavy but tolerable surcharge (around 0.75× a license), but by year 3 you pay roughly 3× to 4× (see above); far more than buying a fresh license with 5 years of mainstream support. As Atlas Systems summarizes, the annual cost rises from 75% to 150%, then to 300% to 400%.
For budgeting, remember: ESU is essentially a per-core license fee. So if you have a 16-core instance, multiply your core license price by those percentages. The first year’s cost is somewhat predictable, but every additional year makes ESUs dramatically more expensive. This pricing model is intended to force a decision: treat ESU strictly as a short-term bridge, not a long-term plan.
Why the Pricing Escalates Every Year
Why such a harsh ramp? The goal is to make ESU a last resort. One writer notes that Microsoft’s ESU curve “pushes you off 2016, not keep you on it.” By year 3, you’re paying roughly 4× what a new license would cost, so continuing ESU beyond a year or two quickly outstrips the cost of upgrading or moving. Microsoft followed a similar scheme with Windows 10 ESUs in 2020 to 2021, rising from 75% to 150%, then to 300%, sending a clear message: only extend support briefly.
Think of ESU like a high toll on a bridge to nowhere. The first year’s “toll” lets you make one last crossing with reasonable pain; every subsequent year’s toll doubles the last. This design aligns with the very short-term nature of ESUs. In practice, no large organization has relied on ESUs for all three years; by year 2 or 3 the bill gets prohibitively large and forces action. In summary, plan to use ESUs for one year maximum.
Migrating to Azure SQL: What Changes
One path is to move your databases to Azure’s fully managed SQL offerings. This changes the environment in several ways:
· PaaS vs IaaS: Azure SQL Database or Azure SQL Managed Instance are Platform-as-a-Service. They automate backups, patching, high availability, and scaling. This means you no longer manage Windows or the OS. The flip side is you must operate in the cloud and potentially refactor parts of your app (network rules, logins, etc.).
· Azure SQL Database (single or elastic): This is a cloud-native database. You connect to it via a connection string (with firewall rules) and let Microsoft run the engine. It can scale compute and storage separately, and handles many DBAs’ chores automatically. (Note: Azure SQL Database doesn’t use fixed “versions”; it’s always up to date under the hood.)
· Azure SQL Managed Instance: This is more like your on-prem SQL Server in the cloud. It supports nearly all SQL Server features (stored procs, cross-database queries, etc.) and is managed by Microsoft. It eases lifting-and-shifting legacy databases: you can restore your 2016 databases into a Managed Instance with minimal code changes. Patching and maintenance are done for you.
· SQL Server on Azure VM: You can also lift and shift by running SQL Server 2016 on an Azure virtual machine. This is essentially the same as on-prem: you manage the OS and updates. A key note: SQL 2016 on an Azure VM does not come with free ESUs anymore. Unlike earlier versions, Microsoft changed the rule so you must pay for ESUs on an Azure VM just as you would on-prem. In other words, moving 2016 to an Azure VM gives you infrastructure flexibility but not a support extension.
Overall, migrating to Azure SQL means trading long-term software license ownership for cloud subscription costs. You pay Microsoft for the managed service. But you instantly avoid the EOL issue: Azure SQL (DB or MI) will never reach a fixed support cutoff in the same way; Microsoft constantly updates it. Your role shifts from patching servers to architecting cloud resources and ensuring network/configuration. If your applications are cloud-compatible, Azure SQL offers a future-proof platform (and often small performance or scale benefits).
Upgrading to SQL Server 2025 Instead
If your workloads are staying on-premises (or on VMs), the “classic” solution is to upgrade to SQL Server 2025. In practice this means either an in-place upgrade of the existing server (less common for production) or spinning up a new SQL 2025 instance alongside the old one. Key points:
· Resetting the support clock: Upgrading to SQL Server 2025 gives you a fresh lifecycle. 2025’s mainstream support will run into the 2030s (basically 10 more years). It also brings the latest features (for example, improved compression, better analytics and security). The Mediterranean Shipping Company example below shows some tangible benefits.
· Migration approach: A safe path is side-by-side migration. Launch a new SQL 2025 server (or VM), restore a copy of each database, and switch your applications over once you’ve fully tested. GMWARE’s guidance is instructive: “the install takes an afternoon, the testing takes weeks.” You should run SQL 2025 in compatibility level 130 or 140 (to mimic 2016 behavior) during testing, then step it up only after validating queries. This regression testing must cover everything: linked servers, Agent jobs, SSIS/SSRS packages, CLR modules, etc. Only after full validation do you enable the new features.
· Cost and licensing: Unlike an ESU, upgrading requires full new licensing (unless you have Software Assurance). If you have SA, moving to a new version may be included at no extra fee; without it, you’ll incur the license cost of SQL 2025. Weigh that against ESU fees or the operational risk of staying on 2016. Also factor in hardware costs if scaling up.
· Vendor certification: Check your application vendors early. If a vendor only certifies their app on SQL 2016 and has no 2025 support, an upgrade becomes complicated. If the vendor does support 2025, then upgrading is generally the “boring, correct answer” for on-premises workloads. Once you’ve tested compatibility, an upgrade should be straightforward.
In summary, an upgrade to SQL 2025 is like buying a new supported platform. It avoids cloud or ESU complexity, but demands careful testing and planning.
A Real Example: How Mediterranean Shipping Company Handled It
Microsoft cites Mediterranean Shipping Company (MSC), the world’s largest container shipping line, as a customer that chose the upgrade route. According to a Microsoft case study, MSC upgraded its global data platform to SQL Server 2025 to modernize and unify its systems. The result: faster analytics and lower costs. In MSC’s own words, moving to SQL 2025 enabled real-time intelligence across their fleet, and they achieved a 20% reduction in storage costs thanks to the new data compression methods in 2025.
· Who: MSC, a global leader in shipping (managing thousands of vessels).
· Action: Migrated all operational databases from older SQL Server to SQL Server 2025.
· Benefits: Improved performance for mission-critical workloads and reduced infrastructure costs. For instance, MSC’s DBAs report they “reduced the storage cost by 20% using the new compression method” in SQL 2025. This kind of win shows how a timely upgrade can pay off.
MSC’s case exemplifies a best-practice upgrade. Instead of continuing on unsupported software, they treated it as an opportunity for modernization. It demonstrates that in large enterprises, preparing well and moving to the latest version can yield measurable gains.
What Happens If You Do Nothing
Leaving a database on SQL 2016 after July 2026 is risky. The consequences stack up quickly:
· Security vulnerabilities: Any new SQL Server security flaw will remain unpatched on 2016. Attackers often reverse-engineer fixes for newer versions; an unsupported 2016 server could be exploited using vulnerabilities already fixed in 2017+. One analysis bluntly observes: “Patches. That’s it, and that’s everything.” Without patches, your server is a sitting duck.
· Compliance failures: Unpatched, unsupported software almost always fails compliance audits. Regulations like PCI DSS or HIPAA require up-to-date patching; running EOL software is typically a non-compliant state. Auditors will flag any system that “can no longer receive vendor patches,” forcing expensive compensating controls.
· Insurance impact: Many cyber-insurance policies mandate that insured systems be maintained and supported. Global Digital notes that having an unsupported database likely voids coverage: policies often exclude losses if “unsupported or unmaintained” software was involved. In other words, a breach on SQL 2016 might not be covered if you continued using it past its support date.
· Vendor and support black hole: Microsoft (and usually third-party vendors) will not help troubleshoot a 2016 instance. If the database crashes or behaves badly, you’re on your own. Beyond that, any third-party “fix” for 2016 issues won’t exist. This means even routine problems could lead to extended downtime.
In summary, doing nothing is effectively gambling with security, compliance, and continuity. You expose the business to potential breaches, fines, and outages.
Auditing Your Own Fleet for EOL Exposure
Before picking a migration path, first take a hard inventory of your environment. A methodical audit will tell you exactly how much is at risk:
· Inventory all instances: Gather every SQL Server 2016 instance, on any OS or platform. Query each server for SELECT @@VERSION to confirm version/edition. Don’t forget development, test, or forgotten VMs; those often slip through until a shutdown reveals the truth. Comprehensive discovery is step one.
· Categorize by criticality: Tag each 2016 instance by importance. Which are internet-facing or handle regulated data? Those are immediate priorities for migration or ESU isolation. Others might be internal, non-essential, or dev/test. For critical systems, plan a faster timeline; for minor ones you might afford a phased approach.
· Check edition & licensing: Identify the edition of each instance. Only Enterprise and Standard editions can purchase ESUs. If any 2016 runs on Express, Web, or Developer edition, ESU isn’t an option; you’ll have to migrate or upgrade that instance. Also count cores: ESU costs are per core (with a 4-core minimum), so know how many v-cores each VM or server has. Check if you have Software Assurance or applicable licensing for ESUs or upgrade rights.
· Record configurations: Note each instance’s service pack level: SQL 2016 SP3 was the final supported service pack. If you find any on SP1 or SP2, they’ve been unpatched since 2018 and should be updated to SP3 immediately (or included in your migration scope). Also log any special features (Always On, replication, etc.) that could complicate a move.
· List application dependencies: For each 2016 database, list the applications, services, and users that rely on it. Check compatibility notes for those applications: for example, if an app vendor only supports SQL 2016 (or has specific client driver requirements), you’ll need a plan to update or isolate it.
· Backup and test: Ensure you have recent backups of all databases. As you audit, also perform a test restore of each database onto a newer environment (e.g. a 2025 instance) to confirm backups are good and migrations are feasible.
This audit parallels a risk assessment more than a general career checklist. (By contrast, our Database Administrator Career Path guide gives a broad overview of DBA skills and certifications.) Here you’re zeroing in on the present danger: which servers will break compliance and security if left on 2016. Be thorough; missing a few instances now can lead to a big surprise later.
What to Check Before You Pick a Migration Path
Once you’ve inventoried everything, do one more round of detailed checks before deciding which route to take:
· Application compatibility: Use tools like Microsoft’s Data Migration Assistant to identify compatibility issues in your databases (deprecated features, T-SQL differences, etc.). Also test your actual application code and reporting tools against a newer SQL instance (in compatibility mode). Many problems only surface under real workload.
· High-availability needs: Determine your SLAs. Can you afford downtime to upgrade in place? If not, you’ll need a parallel instance approach or failover strategy. Also, if using clusters or Always On, verify those configurations on the target platform.
· Security posture: If you’re contemplating a multi-month migration, harden the existing servers (see next section). Ensure OS patches are up to date and minimize the attack surface (disable unused network ports, etc.) while planning your move.
· Migration complexity: List non-database components: ETL jobs, linked applications, external scripts, etc., that interface with each SQL 2016 instance. Some might need refactoring (e.g. migrating an on-prem ETL server to Azure might involve network changes). This will influence whether a full cloud move or a straight upgrade is smoother.
· Cost comparison: Rough out the costs of each path. Compare the license or subscription fees for migrating to Azure (compute + managed service cost) versus buying SQL 2025 licenses or buying ESUs for your cores. Also consider manpower costs for a project timeline. Use this to guide decision-making.
Being systematic here pays off. A skipped detail (like an undocumented linked report server) can stall an upgrade. Document everything and involve both your DBA and application teams in this audit.
Hardening a Legacy Instance You Can’t Migrate Yet
Sometimes you may have to delay the migration (e.g. a critical app only certifies 2016 and its update is far off). In that case, apply extra safeguards to any 2016 instance still running:
· Isolate it: Put the database on a segregated network with strict firewall rules. Block all unnecessary ports and external access. One DBA quip is: “if it’s not needed, shut it off.” Global Digital echoes this: any SQL 2016 instance exposed to the internet or containing regulated data “gets action before the date: upgraded, isolated, or put on ESU; no exceptions.” Even if you can’t upgrade it yet, at least remove it from public networks.
· Lock down users and permissions: Disable or remove any unused logins and services on the SQL Server. Enforce the principle of least privilege: only critical accounts should have access. With no new patches coming, your only defense is to minimize possible breach vectors.
· Advanced monitoring: Turn on detailed auditing, extended events, or a third-party intrusion detection system. Since you can’t patch future exploits, make sure you’ll spot any unusual activity immediately. Consider adding intrusion prevention appliances or enhanced logging so you can react quickly.
· System hardening: Keep the underlying OS and any other software fully patched. Remove (or at least disable) any unneeded features or roles on the server. Enable security features that 2016 supports, for example, use Transparent Data Encryption (TDE) or Always Encrypted columns if possible, to protect data at rest/in motion. These don’t replace patches but add layers of defense.
· Decommission surplus instances: If you discover any forgotten dev or test SQL 2016 boxes, the best “hardening” is often to turn them off. As one advisor puts it, the “dev box nobody remembers” is best solved by decommissioning; it’s the cheapest and surest way to eliminate risk. Don’t let old test servers fester just because it’s inconvenient.
· Third-party support: If you absolutely must keep a 2016 system live (for example, a single remaining critical app), consider paying a third-party maintenance provider. These vendors can handle your backups, monitoring, and non-OS maintenance. However, beware: no third-party can deliver new SQL engine patches. They’ll help keep the system running but cannot neutralize new security flaws.
Note: These are workarounds only. Hardening can buy time, but it doesn’t create new patches. You should continue planning the eventual migration or upgrade even if you secure an instance now.
For contrast: All of the above hardening steps are manual and reactive. Some DBAs now look to DevOps automation to streamline database maintenance. (For example, see Refonte’s article on Automating Database Administration with DevOps Tools.) But automation alone won’t extend support for an outdated engine; it can only help manage changes faster once you decide on a path.
How This Differs From Serverless Postgres and Vector Database Trends
It’s worth clarifying that the SQL 2016 EOL migration scenario is a very different concern from the “new database” trends in the news. Serverless Postgres and the recent “vector database” shakeout are about innovation and cloud scaling, not end-of-life deadlines.
· Serverless Postgres (Neon/LakeBase): Projects like Databricks’ acquisition of Neon focus on on-demand, multi-tenant Postgres instances that decouple compute from storage. These systems can spin up instantly and run at zero when idle. This is a cloud scalability story, not an on-prem lifecycle issue. Migrating SQL 2016 to SQL 2025 or Azure SQL has nothing to do with Neon’s serverless branching or compute model.
· Vector database trends: In AI applications, teams are debating whether to add vector search to existing DBs or deploy specialized vector engines. Refonte’s own Vector Database Shakeout article explains how Postgres is absorbing vector features. Again, that’s about data science use cases, whereas the SQL 2016 EOL is about maintaining enterprise transactional systems. They are orthogonal topics.
· Learning resources: Our focus here is on migration skills (like database migration, upgrade planning, cloud DB admin). By contrast, a career post on serverless Postgres or vector DBs would cover new tools and architectures. (For a sense of those, see Refonte’s posts on Postgres and vector databases.)
In short, don’t confuse “serverless Postgres” or “vector search” with this topic. Those trends involve totally different technology choices and timelines. A company still running on SQL 2016 is dealing with a support deadline, not chasing the latest data platform hype.
Common Mistakes Teams Make During an EOL Migration
Even experienced teams can stumble during a migration. Watch out for these pitfalls:
· Procrastination: Waiting until the last minute to plan. Remember, Microsoft announced this EOL years in advance. Pushing off the project means panic and mistakes later. Start planning NOW.
· All-in on ESU: Assuming ESU can solve everything. ESU should only be a stopgap. If a team treats year-1 ESU purchase as an excuse to “do nothing else,” they often find themselves in trouble (high costs and delays).
· Incomplete inventory: Missing hidden instances. We’ve seen cases where a forgotten dev database or a forgotten Azure SQL VM still ran 2016, only to pop up during compliance scans. Inventory thoroughly.
· Forgetting downtime costs: Underestimating the downtime or performance impact during the switch. For example, an in-place upgrade might require service windows. Not communicating this with business units is a common oversight.
· Neglecting non-DB dependencies: Perhaps the biggest mistake is focusing on the database engine and neglecting the applications.
Underestimating Application-Layer Compatibility Testing
A perennial error is treating a database upgrade as a “back-end only” change. In reality, everything that touches the database needs validation:
· Client drivers and connectors: Ensure all application servers use updated data providers or ODBC/OLE DB drivers that support the new SQL version. Older clients might fail or disable features without the right driver.
· Application logic: Some applications embed SQL queries or use deprecated syntax (e.g. older DMV calls). These can break under a newer engine or compatibility level. Run full end-to-end tests of every workflow.
· ETL and reporting: Don’t just check schemas; run your nightly ETL jobs, BI reports, SSRS/Power BI reports, and OLAP loads against the upgraded server. Surprises often appear here (like performance regressions or minor SQL differences).
· Compatibility modes: It’s smart to keep the new server in the old compatibility level (130 for SQL 2016) during testing, then switch to the new level only after sign-off. That way, you can identify issues without new query optimizer behavior interfering.
· Automation of tests: Whenever possible, script your test suites and failover drills. Manual testing can miss things. If your team has CI/CD for databases, plug in the new instance and run full regression.
Underestimating this layer is what causes late-stage failures. Unlike building a new app, an upgrade has a defined boundary: you must ensure the entire application stack still works on the new SQL engine. Budget ample time for testing; in many projects, the upgrade itself is quick (minutes), but validation and bug-fixing take weeks or months.
Database Administrator Salaries in 2026
As you consider the demand for these skills, here’s a snapshot of DBA compensation in 2026:
· Glassdoor (US): The median total pay for a Database Administrator is around $107,000 per year. Glassdoor reports a typical range roughly $83K (25th percentile) to $139K (75th percentile). (The figure $106,398/year often quoted comes from an earlier snapshot; the current median is ~$107K.)
· ZipRecruiter (July 2026): The average DBA salary is $102,260. ZipRecruiter’s data shows $80,000 at the 25th percentile, $123,000 at the 75th, and $141,500 at the 90th percentile. This closely aligns with Glassdoor’s range.
· BLS (official data): The U.S. Bureau of Labor Statistics lists the median DBA wage at about $104,620 (per annum). Some aggregators extrapolate that top-decile DBAs may exceed $160K, but those higher-end figures come from third-party estimates and should be verified against the actual BLS survey data.
Whether you’re in Dallas or Delhi, demand for senior DBAs with migration and cloud skills is strong (especially now, with SQL 2016 EOL driving urgent hiring). These salary figures reflect a market where experienced DBAs command six-figure compensation.
Building This Skill Set: The Refonte Learning Database Administrator Program
Tackling SQL Server 2016’s EOL and its migration paths requires up-to-date skills. That’s exactly what the Refonte Learning Database Administrator Program delivers. This 3-month, part-time course (12 to 14 hours/week) covers all the foundation and advanced topics a DBA needs.
· Format: 3 months, 12 to 14 hours per week of hands-on learning. Ideal for working professionals or career-changers.
· Curriculum: Three modules: (1) Introduction to Database Fundamentals; (2) Advanced SQL Techniques; and (3) Cloud Database Administration (covering AWS RDS, Azure SQL, and Google Cloud Spanner). This mix ensures you learn classic RDBMS skills and modern cloud DB management.
· Tools: You’ll get practice with tools like MySQL Workbench, Oracle SQL Developer, and AWS RDS environments. These platform-agnostic tools build the muscle you’ll need in migrations and cross-platform work.
· Mentorship: The instructor is Dr. Helena Ferreira, a veteran DBA with over 15 years of experience in data analytics. Her guidance simulates real-world enterprise projects.
· Outcomes: Graduates step into roles such as Database Administrator, Database Architect, Data Engineer, or Cloud Database Manager. The program specifically emphasizes cloud and advanced SQL skills, directly aligning with the tasks of migrating, upgrading, and hardening databases.
While the program doesn’t list “SQL 2016” by name, its content is directly applicable. The Advanced SQL and Cloud DB Admin modules, for example, teach you how to manage and migrate databases on Azure SQL, which is precisely what you’ll be doing with a legacy 2016 system. The mentorship and hands-on labs train you to think like a real production DBA confronting modern challenges.
Bottom line: The skills needed to navigate SQL 2016’s end-of-support (cloud platform knowledge, upgrade planning, advanced SQL, cross-environment tooling) are exactly what Refonte’s DBA program builds. If you’re a DBA gearing up for this wave of migrations, investing in such training will help you lead your team through these changes with confidence.