Skip to main content
JobDescription.orgSearch

Artificial Intelligence

AI Systems Engineer Job Description

An AI Systems Engineer designs, builds and operates the production systems that put AI models to work: the data pipelines, retrieval layers, serving endpoints, guardrails, evaluation suites and monitoring that surround a model. The role sits where software, data and machine learning engineering meet, at AI product companies, cloud providers, software publishers and enterprises running their own AI applications. Federal wage data has no line for the title. The closest occupation, Software Developers, paid $135,980 at the May 2025 median, $82,460 at the 10th percentile and $214,670 at the 90th.

Last updated

Role at a glance

Typical education
Usually a bachelor's degree in computer science, software engineering or a related technical field.
Typical experience
As a rough guide, 3 to 5 years of backend, data or platform engineering, including a production AI system.
Key certifications
None required; options include AWS Certified Machine Learning Engineer - Associate, Google Cloud Professional Machine Learning Engineer and NVIDIA-Certified Professional: Generative AI LLMs.
Top employer types
AI product companies, cloud providers, software publishers, banks, health systems, defense contractors and government agencies.
Growth outlook
A February 2025 BLS analysis found software developers, the nearest tracked occupation, unlikely to see AI cause an employment decline.
AI impact (through 2030)
Foundation model updates can change system behavior with no code change, which makes evaluation and monitoring core duties.

Duties and responsibilities

  • Design the architecture of production AI applications, deciding how models, retrieval, business rules and tool calls connect and fail over.
  • Build and maintain data, embedding and retrieval pipelines that feed models current, licensed and correctly versioned information.
  • Deploy models behind serving endpoints or provider APIs, tuning batching, caching and request routing to meet latency and cost targets.
  • Version prompts, evaluation sets, guardrail settings, tool definitions and model releases so any production answer can be traced and reproduced.
  • Run automated evaluation suites before every model, prompt or retrieval change, and block releases that regress on quality or safety.
  • Instrument live systems with tracing, drift detection, output sampling and cost dashboards, and route alerts to the on-call engineer.
  • Test systems against prompt injection, data leakage and excessive agent permissions, working with security teams on threat models and fixes.
  • Isolate model provider calls behind clean interfaces so a deprecated or repriced model can be replaced without rewriting the application.
  • Lead incident response when AI output degrades, tracing the cause through data, retrieval, model and configuration layers, then writing the postmortem.
  • Document system design, known limitations and human review points in system cards and runbooks that auditors, product owners and new engineers can follow.

Overview

An AI Systems Engineer is responsible for the whole production system that surrounds a model, not the model alone. A trained classifier or a hosted foundation model is one component. Around it sit data pipelines, retrieval indexes, prompt templates, guardrails, tool integrations, serving endpoints, evaluation suites and monitoring. The engineer's job is to make that assembly behave predictably for real users, at a cost the business has agreed to carry.

The Software Engineering Institute at Carnegie Mellon University, which published AI Engineering: 11 Foundational Practices in 2019, explains why the work needs its own discipline. Its April 2026 update, AI Engineering: Twelve Foundational Practices, says AI systems differ from conventional software because "behavior emerges from data rather than specification," production performance moves as data distributions change, and components become entangled to the point that changing one element silently affects behavior elsewhere in the system. Software engineering is the foundation, in the SEI's framing, but it is not enough by itself.

Building the system

Day to day, the work starts with architecture. The SEI describes compound systems as "architectures that orchestrate multiple AI and non-AI components to accomplish tasks," and an AI Systems Engineer decides how those pieces fit together. Which requests go to a large hosted model and which to a small fine-tuned one? Where does retrieval happen, which business rules run before and after generation, and what does the system return when a component times out? Clean interfaces between modules let a team swap one model for another without rewriting the application around it.

Version control reaches well past source code. The SEI's list of artifacts worth tracking includes evaluation datasets, prompts, retrieval configurations, guardrail settings, fine-tuning data, tool definitions and specific versions of third-party models or APIs. When a user reports a bad answer, the engineer has to reconstruct which prompt, index snapshot and model version produced it, and that is only possible if every one of those pieces carries a version.

Running the system

Once a system is live, observability sits at the center of the job. Standard dashboards catch latency spikes and error rates. AI-specific monitoring adds drift in incoming data, shifts in graded output quality, refusal rates and cost per request. Tracing links one user request to every model call, retrieval step and tool invocation behind it. OpenTelemetry, the open-source observability project, maintains semantic conventions for generative AI that cover client inference, embeddings, tool execution and retrieval, and the specification is still marked with a Development status.

The rest of the week goes to evaluation runs ahead of releases, incident reviews, tuning GPU and API spend, and working sessions with data scientists, product engineers, security reviewers and the domain experts who define what a correct answer looks like for the business.

Qualifications

Education

The usual starting point is a bachelor's degree in computer science, software engineering, computer engineering or a related field. A master's degree in machine learning or distributed systems can help for roles that sit close to research teams, but it is not a standard gate for production work. Candidates from physics, applied mathematics or electrical engineering who can point to shipped software belong in the same pool.

Experience

As a rough guide, AI Systems Engineer roles fit engineers with three to five years of backend, data or platform engineering behind them, including at least one AI or machine learning system they have run in production. Time spent carrying a pager, debugging a distributed system under pressure and writing honest postmortems is directly relevant. So is any work that involved defining test cases with subject-matter experts rather than inventing them alone.

Skills

  • Languages: Python first, plus SQL, with Go, Rust or C++ for performance-sensitive services.
  • Models and serving: PyTorch, Hugging Face Transformers, vLLM or NVIDIA Triton Inference Server, and the APIs of hosted model providers.
  • Orchestration and infrastructure: Docker, Kubernetes, Terraform, and a workflow engine such as Airflow, Kubeflow Pipelines or Ray.
  • Data and retrieval: embedding pipelines, vector indexes, feature stores and streaming systems such as Kafka.
  • Evaluation and observability: test-set curation, automated graders, human review workflows, OpenTelemetry tracing and Prometheus metrics.
  • Security: threat modeling for prompt injection, permission design for agents and checks on third-party model artifacts.

The SEI's 2026 practices say AI teams "now need expertise that spans system engineering, platform engineering, evaluation design, and prompt engineering alongside traditional software and data skills." On a small team, one AI Systems Engineer may cover several of those areas at once.

Certifications

No certification is required for the role. The credential lineup did change in 2026: AWS retired its Certified Machine Learning - Specialty exam, and March 31, 2026 was the last day to take it, although holders keep an active certification for 3 years from the date they earned it. Current options include:

  • AWS Certified Machine Learning Engineer - Associate (Amazon Web Services), which AWS says validates ability in implementing ML workloads in production and operationalizing them
  • Professional Machine Learning Engineer (Google Cloud)
  • NVIDIA-Certified Professional: Generative AI LLMs (NVIDIA)
  • Certified Kubernetes Administrator (Cloud Native Computing Foundation and The Linux Foundation)
  • Certified Systems Engineering Professional, or CSEP (INCOSE), for engineers whose programs follow formal systems engineering processes

Alongside any badge, a written design review, an evaluation harness or a postmortem from a real system shows how a candidate thinks.

Career outlook

BLS does not count AI Systems Engineers as a separate occupation. The closest federal category, software developers, held 1,687,890 jobs in May 2025, according to the Occupational Employment and Wage Statistics survey. The Occupational Outlook Handbook, last modified on August 27, 2026, projects employment of software developers, quality assurance analysts and testers combined to grow 10 percent from 2025 to 2035, much faster than the average for all occupations, with about 106,100 openings a year on average. BLS links that demand partly to "the continued expansion of software development for artificial intelligence (AI), internet of things (IoT), robotics, and other automation applications."

Where the work is heading

Several shifts documented in 2026 guidance shape what the job asks for.

Evaluation has moved to the front. When the SEI revised its practices in April 2026, it promoted evaluation to a standalone practice. In 2019, the SEI notes, evaluation typically meant accuracy on a held-out test set; the 2026 document stretches it to drift detection, safety testing and continuous production monitoring. For an AI Systems Engineer, that means evaluation suites are build infrastructure, not a one-time report.

Monitoring after launch is an open problem. NIST's Center for AI Standards and Innovation held three practitioner workshops in 2025 and published its findings in March 2026 as NIST AI 800-4, Challenges to the Monitoring of Deployed AI Systems. The report says pre-deployment evaluations are "predominantly done in controlled testing environments that cannot account for real-world dynamics," and it records practitioners' repeated calls for further guidance on post-deployment methods such as field studies and incident monitoring. Logging, output sampling and incident processes for live systems are the parts of this role that answer that gap.

Running costs are a design input. The SEI warns that operational costs, including monitoring, retraining, infrastructure scaling and dependency management, "can rival or exceed development costs," and it names a cost discipline sometimes called "FinOps for AI." In practice, that puts cost per request on the same dashboard as quality scores.

Governance is moving into pipelines. The SEI's outlook describes organizations embedding compliance checks, audit mechanisms and policy enforcement directly into development and deployment pipelines. For engineers, that translates to release gates that hold a model or prompt change until its evaluation and documentation are complete.

Defense buyers want speed. The SEI's 2026 practices describe the Department of War's January 2026 AI strategy memorandum as directing vendors to deploy the latest models within 30 days of public release. Its argument is that sound engineering is what makes rapid deployment possible, and that without it, speed creates risk rather than advantage.

Advancement

From the AI Systems Engineer seat, paths lead to staff or principal engineer roles that own architecture across several products, to AI platform lead or engineering manager, or toward specialties such as inference optimization, AI security and evaluation engineering. Some engineers move sideways into AI product management or solutions architecture, where knowing how production systems fail is a practical asset in customer conversations.

Sample cover letter

Dear Hiring Manager,

I am applying for the AI Systems Engineer opening on your applied AI team. For the past four years I have worked in the platform group at a regional insurance carrier, where I moved our claims-triage assistant from a pilot used by a dozen adjusters to a service the whole claims department now depends on.

That move was mostly systems work. I split the assistant into separate retrieval, generation and policy-check services with typed interfaces, which let us replace the hosted model twice without touching the adjuster-facing application. I put prompts, retrieval settings and evaluation sets under version control next to the code, so every answer in our logs traces back to the exact configuration that produced it. When an adjuster flagged a wrong coverage summary last spring, that trail let me find a stale policy index within an hour.

I also built our release gate. Every change to a prompt, model version or retrieval setting now runs against a regression suite of graded claims scenarios that our senior adjusters helped write, and a change that falls below the agreed threshold cannot ship. On the operations side, I added request tracing and a weekly cost-per-claim report, which gave our finance partners a number they could plan around.

Your posting describes agent workflows that update policy records on their own. That is the work I want next, and I would bring the same habits to it: narrow permissions, logged actions, and a human approval step wherever the stakes call for one. I would also want the people who know the records best helping to define what a correct outcome looks like before anything goes live.

I would welcome a conversation about the role and the systems your team is building.

Sincerely, Jordan Avery

Frequently asked questions

What does an AI Systems Engineer do?
An AI Systems Engineer designs, builds and operates the production systems that put AI models to work: the data pipelines, retrieval layers, serving endpoints, guardrails, evaluation suites and monitoring that surround a model. The role sits where software, data and machine learning engineering meet, at AI product companies, cloud providers, software publishers and enterprises running their own AI applications. Federal wage data has no line for the title. The closest occupation, Software Developers, paid $135,980 at the May 2025 median, $82,460 at the 10th percentile and $214,670 at the 90th.
What are the main duties of an AI Systems Engineer?
Core duties include: design the architecture of production AI applications, deciding how models, retrieval, business rules and tool calls connect and fail over; build and maintain data, embedding and retrieval pipelines that feed models current, licensed and correctly versioned information; and deploy models behind serving endpoints or provider APIs, tuning batching, caching and request routing to meet latency and cost targets.
How does an AI Systems Engineer differ from a machine learning engineer?
A machine learning engineer's center of gravity is the model: features, training runs and model quality. An AI Systems Engineer owns the system the model lives in, including retrieval, guardrails, serving, evaluation gates and monitoring, and may never train a model when the product runs on a hosted foundation model. On a small team, one engineer may do both jobs.
Do federal AI rules apply to the systems an AI Systems Engineer builds?
For federal agencies, yes. OMB memorandum M-25-21, issued April 3, 2025, requires pre-deployment testing, an AI impact assessment and ongoing monitoring for high-impact AI, meaning AI whose output is a principal basis for decisions with a legal, material, binding, or significant effect on rights or safety, and it gave agencies 365 days to document those practices. The memo is addressed to the heads of executive departments and agencies, not to private companies.
How is AI itself changing this engineering job?
The models underneath the work keep moving: the SEI's 2026 practices say foundation model capabilities shift at least quarterly and recommend designing for substitutability, which turns model swaps into routine, test-gated engineering. Agents add a second layer of work, since the SEI notes that agentic systems amplify security concerns by granting AI components operational authority.
Is the NIST AI Risk Management Framework mandatory?
No. NIST describes the AI RMF as intended for voluntary use, and its resource center states that AI RMF 1.0 is being updated, with a revised version in progress. Its core has four functions, Govern, Map, Measure and Manage, and the SEI's 2026 practices point to the Map function as a structured way to decide whether AI fits a use case at all.
What does on-call look like for an AI Systems Engineer?
Pages come from familiar places such as latency, error rates and failed jobs, plus AI-specific alerts like a jump in refusals, a drop in evaluation scores on sampled traffic or a spike in cost per request. Diagnosis can cross several layers, because a bad answer may trace back to a stale index, a prompt edit or a provider's model update rather than a code bug. Clear runbooks and fast rollback of prompts and model versions are the main tools.

Sources

Salary figures and role details on this page were checked against the following sources. Dates show when each was last reviewed.

  1. Software Developers, BLS Occupational Employment and Wage Statistics (May 2025)Checked Nov 10, 2026
  2. 2018 SOC Direct Match Title File, U.S. Bureau of Labor Statistics (2018)Checked Nov 10, 2026
  3. O*NET 30.3 Database: Job Titles file, National Center for O*NET Development (2026)Checked Nov 10, 2026
  4. Computer and Information Research Scientists, BLS Occupational Employment and Wage Statistics (May 2025)Checked Nov 10, 2026
  5. AI Engineering: Twelve Foundational Practices, Carnegie Mellon University Software Engineering Institute (April 2026)Checked Nov 10, 2026
  6. AI Engineering: Twelve Foundational Practices (library entry), Carnegie Mellon University Software Engineering Institute (April 22, 2026)Checked Nov 10, 2026
  7. NIST AI 800-4: Challenges to the Monitoring of Deployed AI Systems, NIST Center for AI Standards and Innovation (March 2026)Checked Nov 10, 2026
  8. New Report: Challenges to the Monitoring of Deployed AI Systems, NIST (March 9, 2026)Checked Nov 10, 2026
  9. AI Risk Management Framework resources, NIST Trustworthy and Responsible AI Resource Center (2026)Checked Nov 10, 2026
  10. AI RMF Core, NIST Trustworthy and Responsible AI Resource Center (2026)Checked Nov 10, 2026
  11. M-25-21: Accelerating Federal Use of AI through Innovation, Governance, and Public Trust, Office of Management and Budget (April 3, 2025)Checked Nov 10, 2026
  12. AWS Certified Machine Learning - Specialty, Amazon Web Services (2026)Checked Nov 10, 2026
  13. AWS Certified Machine Learning Engineer - Associate, Amazon Web Services (2026)Checked Nov 10, 2026
  14. Certification Programs, NVIDIA (2026)Checked Nov 10, 2026
  15. Semantic conventions for generative AI systems, OpenTelemetry project (2026)Checked Nov 10, 2026
  16. Software Developers, Quality Assurance Analysts, and Testers, BLS Occupational Outlook Handbook (August 27, 2026)Checked Nov 10, 2026
  17. Incorporating AI impacts in BLS employment projections: occupational case studies, Monthly Labor Review, U.S. Bureau of Labor Statistics (February 2025)Checked Nov 10, 2026
  18. Professional Machine Learning Engineer certification, Google Cloud (2026)Checked Nov 10, 2026
  19. Certified Kubernetes Administrator (CKA), The Linux Foundation (2026)Checked Nov 10, 2026
  20. Systems Engineering Professional Certification Program (CER-PROC-01, v5.0), International Council on Systems Engineering (2026)Checked Nov 10, 2026