AI engineer · Industrial systems

Industrial intelligence,
built for the real world.

I'm Serdar Gündoğdu—an AI engineer who turns complex industrial data into usable products, dependable machine learning systems, and faster decisions.

Application map · live destinations

One portfolio. Focused applications.

The three-letter code is the permanent key between each application, repository, and aserdargun.com subdomain.

CodeApplicationRepositoryAddress
aiaAI Ecosystem AtlasAn evidence-backed research console for comparing AI products and developer ecosystems.aia-aserdargun-com aia.aserdargun.com
llmLLM Runtime & Serving AtlasA source-backed field guide to LLM runtime and serving solutions across seven architectural layers.llm-aserdargun-com llm.aserdargun.com
uslUnsloth Studio LearningA bilingual learning atlas for Unsloth, LoRA, QLoRA, dataset engineering, and evaluation.usl-aserdargun-com usl.aserdargun.com
gpuGPU Kernel Engineering — Kernel AtlasA bilingual 12-week atlas for CUDA, Triton, GPU memory, profiling, and kernel optimization.gpu-aserdargun-com gpu.aserdargun.com
cldCloud Provider Cost ComparisonA source-backed decision tool comparing pre-tax USD costs for cloud services available from Türkiye.cld-aserdargun-com cld.aserdargun.com

Career journey

One path, many engineering lenses.

I began my journey with the fundamentals of mechanics. Industrial engineering taught me to see systems through a multidisciplinary lens, while a master's degree in materials and manufacturing strengthened my research-led approach. As a production engineer and manager, I worked with lean flows, quality, Six Sigma, and leadership. I later combined that industrial foundation with data science, software, and cloud engineering to build AI products. Today I design and deliver AI systems with Claude and Codex as engineering partners.

Reading direction · 08 → 01 This roadmap begins with my current focus and moves backward toward the engineering foundations that made it possible. Scroll from AI engineering through data, production, and education.
  1. 08

    Now · Primary focus

    Portrait associated with the AI Engineer career stage
    DIGITAL WORLDTurning intelligence into working systems

    AI Engineer

    I design and build AI systems end to end, connecting model development, dataset engineering, evaluation, software, and cloud delivery. My current work also includes model adaptation, agentic workflows, and evidence-aware evaluation.

    • AI systems
    • Model engineering
    • Dataset engineering
    • Evaluation
    • Product delivery
  2. 07

    Product engineering

    Portrait associated with the Full-Stack AI Engineer career stage
    DIGITAL WORLDFrom models to products

    Full-Stack AI Engineer

    Connected models to complete products through frontend, backend, APIs, deployment, and cloud engineering.

    • Frontend
    • Backend
    • Cloud
  3. 06

    Data

    Portrait associated with the Data Scientist career stage
    DIGITAL WORLDFrom data to models

    Data Scientist

    Moved from process evidence to models, algorithms, data pipelines, and analytical software.

    • Machine learning
    • Python
    • C
    • SQL
  4. 05

    Leadership

    Portrait associated with the Production Manager career stage
    PHYSICAL WORLDFrom operations to data

    Production Manager

    Led teams and processes with a focus on quality, Six Sigma, repeatability, and continuous improvement.

    • Leadership
    • Six Sigma
    • Quality
  5. 04

    Operations

    Portrait associated with the Production Engineer career stage
    PHYSICAL WORLDMaking production measurable

    Production Engineer

    Translated engineering discipline into stable production flow, value stream mapping, and Lean improvement.

    • Value stream mapping
    • Lean
    • Production flow
  6. 03

    Graduate study

    Portrait associated with the M.Sc. Materials and Manufacturing career stage
    PHYSICAL WORLDFrom materials to evidence

    M.Sc. in Materials and Manufacturing

    Strengthened an evidence-driven approach through materials, manufacturing, and academic research.

    • Academic approach
    • Research
  7. 02

    Education

    Portrait associated with the Industrial Engineering career stage
    PHYSICAL WORLDSystems and flow

    Industrial Engineering

    Learned to connect people, processes, technology, and decisions as one operating system.

    • Multidisciplinary
    • Systems thinking
  8. 01

    Education

    Portrait associated with the Mechanical Engineering career stage
    PHYSICAL WORLDMatter and mechanics

    Mechanical Engineering

    Built a foundation in mechanics, physical systems, and engineering problem solving.

    • Mechanics
    • Engineering fundamentals

Learning system · AI Ecosystem Atlas

The atlas is a learning system.

The five applications form one learning loop, and every stop starts with a question: orient in the atlas, build through three parallel tracks — hardware, serving, training — and converge on AI infrastructure. Evidence from every track flows back into the atlas.

Study order · how the tracks build on each other

  1. aiaLiving map · never “done”
  2. gpuFoundation
  3. llmMain project
  4. uslFrom running to changing models
  5. cldProduction, last
  1. Orient

    aia

    AI Ecosystem Atlas

    “What exists?”

    Start with the map of the territory. Compare AI products and developer ecosystems with evidence before investing time in any track. The atlas is a living index, not a project to finish — every run through the loop updates it.

    ecosystem models training inference runtime hardware cloud

    aia.aserdargun.com
  2. Build · three parallel tracks

    • gpu

      Hardware track

      “How does compute work?”

      GPU Kernel Engineering — Kernel Atlas

      Learn the machine the models run on: CUDA, Triton, GPU memory, profiling, and kernel optimization across a bilingual 12-week atlas.

      CPU vs GPU GPU architecture VRAM memory bandwidth CUDA / Tensor cores FP32 / FP16 / BF16 / FP8 / INT8 / INT4 matrix multiplication CUDA kernels FlashAttention KV cache quantization multi-GPU tensor parallelism

      gpu.aserdargun.com
    • llm

      Serving track · hub

      “How do models run?”

      LLM Runtime & Serving Atlas

      Learn to ship models: runtime and serving solutions classified across seven architectural layers. Hardware and training both feed this track.

      model architecture precision memory calculator runtime inference engine serving API benchmark

      Ollama llama.cpp vLLM SGLang TensorRT-LLM Transformers MLX

      llm.aserdargun.com
    • usl

      Training track

      “How do models learn/change?”

      Unsloth Studio Learning

      Learn to change models, not just run them: Unsloth, LoRA, QLoRA, dataset engineering, and evaluation in a bilingual learning atlas.

      pretrained model dataset tokenization LoRA QLoRA SFT DPO GRPO evaluation merged model LLM runtime

      usl.aserdargun.com

    gpu → llm hardware decides what you can serve usl → llm the models you train become what you serve llm → gpu inference pressure exposes the hardware limits

  3. Converge

    cld

    AI Infrastructure

    “How do I operate this at scale?”

    Cloud Provider Cost Comparison

    Turn the stack into decisions: compare pre-tax USD costs of cloud services available from Türkiye and choose where the whole system runs. Cloud comes last on purpose — once you know what you deploy, infrastructure stops being abstract.

    model vLLM Docker GPU instance cloud GPU load balancer autoscaling API

    cld.aserdargun.com
  4. Return

    aia

    Back to the atlas

    “Where does this technology fit?”

    aia.aserdargun.com

    The loop closes when what you learned returns to the atlas — the map you started with becomes the record of what you can now build, and the next pass through the loop starts deeper.

From physical systems

to governed intelligence

to decisions people can trust

How I work

Engineering discipline. AI-native pace.

I combine industrial context, statistical thinking, and modern AI development workflows to close the gap between an idea and a system people can actually use.

01

Frame the decision

Start with the operator, engineer, or business decision—not the model. Define the signal, constraint, and useful action.

02

Build the full loop

Connect data, analysis, APIs, interface, and feedback so the intelligence survives outside a notebook.

03

Make it operable

Design for traceability, human review, deployment constraints, and the realities of industrial environments.

Predictive analyticsTime seriesIndustrial data platformsApplied machine learningAI-assisted software delivery

About

I sit at the intersection of engineering, data, and product delivery.

My background spans statistics, mathematics, mechanical and industrial engineering. That mix helps me see AI as a complete operating system: the data foundation, the model, the interface, the deployment path, and the people making the final decision.

I use AI coding partners such as Codex, Claude Code, and Gemini as part of a disciplined development workflow—accelerating research and implementation while keeping architecture, validation, and accountability human-led.

Have an industrial AI problem worth solving?

Let's build something useful.

Investment · depth beats order

llm 30% gpu 25% usl 20% cld 15% aia 10%

The study order is AIA → GPU → LLM → USL → CLD; the depth priority is LLM first. Right now the center of gravity is the GPU + LLM pair — where the hardware meets the runtime.