MLOps vs LLMOps: Let’s simplify things

MLOps and LLMOps compared: why LLM deployment requires different tooling for prompt management, evaluation pipelines, and model drift than classical ML workflows.

MLOps vs LLMOps: Let’s simplify things
Written by TechnoLynx Published on 25 Nov 2024

Introduction

Artificial Intelligence (AI), Deep Learning (DL), and Machine Learning (ML) in general have become integrated into a plethora of procedures and applications. Great examples include GPU-accelerated Computer Vision (CV) and Augmented Reality (AR) or Extended Reality (XR), in fields such as agriculture, medicine, pharmaceutics, the food industry, and even cosmetics! This integration could not have been accomplished without Machine Learning Operations (MLOps), a core function of the development of any ML algorithm, the only job of which is the transfer of a working model to any functional and productive routine. This might not seem like a big deal, but let us see if you change your mind after we explain what MLOps are and compare them to Large Language Model Operations (LLMOps). Keep reading to find out more!

Read more: Small vs Large Language Models

What’s the Difference?

On one Hand

ML has a very straightforward operation. You give it info, you train it to do a job, and then you test it and evaluate its performance. The closer its accuracy is to 100%, the better the results of whatever it needs to do. Examples include anything from simple classification tasks to organising shop inventories, forecasting trends and crop production, or matching outfits to occasions. How is that accomplished on a commercial level, though? The answer lies in MLOps. Let us explain.

Developing an ML algorithm consists of specific steps, mainly data input, data preparation, model training, evaluation, tuning, and revaluation, while the last step is model deployment with continuous monitoring. To accomplish these tasks, engineers of different fields need to collaborate. This depends not only on the complexity of the model but also on the field of applications (What is MLOps?, 2021). Here is exactly where MLOps enter the game. MLOps are split into three discrete levels.

Level 0 MLOps are operating ML models, where everything happens more or less manually, from data preparation and the entire training process to the evaluation and validation of the model’s performance. At level 1, we have the same steps, but the training is achieved by an automated pipeline. Simply put, if at level 0, one deploys a pre-trained model to production, and at level 1, you deploy a pre-trained pipeline that runs perpetually to serve the incorporation of the already trained model into other apps. Level 1 requires a significant number of automated steps and continuous training with fresh data, while Level 1 MLOps use the same pipeline in development, pre-production and production environments. Reaching the final and most advanced level, Level 2, is always the choice of a company that wants to experiment more by creating new models that require continuous training. Level 2 MLOps have the same specs as those of Level 1, with the addition of an orchestrator and a registry to keep track of the multiple models running simultaneously or successively (What is MLOps? - Machine Learning Operations Explained - AWS).

Figure 1 – The MLOps cycle (Databricks, 2021)
Figure 1 – The MLOps cycle (Databricks, 2021)

On the Other Hand

LLMOps have their own complexities and goals. While MLOps are generic and can be applied to any ML model application, LLMOps are targeted towards Large Language Models (LLM), hence their name. In a nutshell, LLMOps are pretty much Natural Language Processing (NLP) MLOps. We have all witnessed the rise of different NLP assistants from leading companies such as Microsoft, Google, and OpenAI, all bragging that their Generative AI model is the best, while it is only a matter of preference for most people out there. One thing is certain: None of the above NLPs could have been developed without the use of LLMOps (LLMOps: What it is and how it works).

As with any ML algorithm, LLMOps need to follow specific steps. Don’t forget that no matter how sophisticated they are, they are still ML; therefore, the first step is to train the model with large amounts of data that have undergone some sort of preprocessing. The data are then fed into the model, which is trained depending on the result we wish to achieve using either supervised, unsupervised, or reinforced training. Once the training is done, the model can be tested, and if it passes the requirements, it can be deployed to a production environment, for example, NLP that helps you with your homework. Of course, LLMOps are dynamic models and require continuous monitoring and tweaking to ensure that the performance stays high while at the same time secure. Most of the data used by such models are data shared by users through their consent, yet the last thing a company needs is data loss by pirates or hackers (LLMOps – Core Concept and Key Difference from MLOps, 2023).

LLMOps in ML can find applications not only in different fields but also within different other AI algorithms, such as Computer Vision assisted NLPs for the development of Extended Reality assistants. In addition to training the model to understand speech or text, an XR assistant will have to be convincing when it ‘talks’. By automating this section of the Generative AI pipeline, we save not only time but also processing power during training. Another application of LLMOps that you might not have considered is the detection of whether or not an email is spam. Have a look at the figure below to see how Microsoft does it!

Figure 2 – The difference between MLOps and LLMOps for the detection of spam emails (Microsoft, n.d.)
Figure 2 – The difference between MLOps and LLMOps for the detection of spam emails (Microsoft, n.d.)

But there is so Much Data!

Indeed, there are, and one needs to be very cautious when training any of the two models we have discussed so far. The step where things can probably go south is data prep. It doesn’t matter how intuitive an algorithm is. If the data has flaws, say goodbye to good results. Things to consider include typos, missing values, senseless input, not enough data for the model to train, and overfitting.

Prompt Engineering

Let’s now recap and see how the dots are connected and by whom. You want to develop a functional NLP model with real discussion capabilities. You create MLOps models, feed them with data, and, after testing them, incorporate them into LLMOps models. Tech-wise that is all, but how can you ensure that the final model is indeed functional? Careful now; ‘functional’ means not only giving correct answers but also being able to follow the flow of a conversation naturally, similar to having a real interlocutor. This is where the prompt engineers come in.

First things first. The term ‘prompt’ refers to any request made by a human to a Generative AI system. As we already discussed in our NLPs for customer service article, the importance of removing unnecessary things from a text is beyond measure for the proper function of any NLP model. A significant part of ensuring this is text scraping, a procedure that greatly simplifies the information the model receives so that it can later match it to phrases the meaning of which it already knows. However, this is not the only thing to look out for.

Prompt engineers are responsible for the entire conversational part of the NLP, so they need to learn to think like both AI and humans. Some of the things that prompt engineers need to consider when the model is being built are:

  • Provision of examples: The basis of the training of the model. If there are not enough or properly stated examples, any MLOp will perform poorly.

  • Specificity: A key element of proper answers is specificity. This is where the operation of a model is truly evaluated by testing if it can tell apart similar concepts.

  • Instructions provision: The engineer needs to make sure that the model can follow instructions when a prompt is stated.

  • Chain of thought prompting experiments: The last step for a successful model is to run experiments to check that the model can not only follow instructions but can also understand and follow your way of thinking to generate results and answer questions, no matter how many times you change it.

Figure 3 – The steps that prompt engineers need to take for a successful model (Content Scale AI, 2023)
Figure 3 – The steps that prompt engineers need to take for a successful model (Content Scale AI, 2023)

In Practice

If you feel limited in using this technology, don’t worry. Technology is on your side, and everything is possible. Edge Computing is the answer to your problem. Basically, it doesn’t matter where you are in the world or how much space you have. Edge Computing as a concept ensures that you can have as much processing power as you want on a local level. The only ‘limitation’ to that is your budget, yet it depends on how flexible you are. Simply put, you don’t need to start big. Edge computing consists of many components that are 100% modular. As with all the important things, start small and build your way up!

Another advantage that everyone has is the power of the Internet of Things (IoT). Are you limited by space or access to hardware? No sweat! IoT has made it possible for different pieces of equipment to communicate, as long as they are in the same network or to multiple networks that are communicating.

Summing Up

As you can see, we have barely scratched the surface of what MLOps and LLMOps are, but we believe that things are much simpler for you. NLPs are a fascinating field of engineering with many daily applications, not only in corporate environments but also in home environments. There is no doubt that implementing ML in any field will give you a great advantage, something that just cannot be achieved without MLOps or LLMOps.

What We Offer

At TechnoLynx, we are driven to innovate. Our custom-tailored solutions for your needs are made on demand, made from scratch, and specifically designed for your project. We specialise in delivering tech solutions because we already understand the benefits of AI better than anyone. We are committed to providing cutting-edge solutions in all fields while ensuring safety in human-machine interactions. We are proud to say that our team is great at managing and analysing large data sets while simultaneously addressing ethical considerations.

We offer precise software solutions that empower many fields and industries using innovative AI-driven algorithms, always adapting to the ever-changing AI landscape. The solutions we present are designed to increase accuracy, efficiency, and productivity. Feel free to contact us to share your ideas or questions. We will be more than happy to make your project fly!

Continue reading: Introduction to MLOps

Read more about our MLOPs services!

List of references

  • An Introduction to LLMOps: Operationalizing and Managing Large Language Models using Azure ML (no date) TECHCOMMUNITY.MICROSOFT.COM (Accessed: 12 June 2024).

  • LLMOps – Core Concept and Key Difference from MLOps (2023) TECHVIFY Software (Accessed: 10 June 2024).

  • LLMOps: What it is and how it works (no date) Google Cloud (Accessed: 10 June 2024).

  • What is MLOps? (2021) Databricks (Accessed: 10 June 2024).

  • What is MLOps? - Machine Learning Operations Explained - AWS (no date) Amazon Web Services, Inc. (Accessed: 10 June 2024).

  • What is Prompt Engineering? Generate the Perfect AI Response (2023) Content @ Scale, 10 August. (Accessed: 12 June 2024).

  • Cover image: Freepik

Object Detection Model Selection for Production: YOLO vs Transformers, Speed/Accuracy, and Deployment

Object Detection Model Selection for Production: YOLO vs Transformers, Speed/Accuracy, and Deployment

9/05/2026

Object detection model selection for production: YOLO variants vs detection transformers, speed/accuracy tradeoffs, edge vs cloud deployment, mAP vs.

Multi-Agent Architecture for AI Systems: When Coordination Adds Value

Multi-Agent Architecture for AI Systems: When Coordination Adds Value

8/05/2026

Multi-agent AI architectures coordinate multiple LLM agents for complex tasks. When they add value, common coordination patterns, and where they break.

Facial Detection Software: Open Source vs Commercial APIs, Accuracy, and Production Integration

Facial Detection Software: Open Source vs Commercial APIs, Accuracy, and Production Integration

8/05/2026

Facial detection software options: OpenCV, dlib, DeepFace vs commercial APIs, when to build vs buy, demographic accuracy, and production pipeline.

What Is MLOps and Why Do Organizations Need It

What Is MLOps and Why Do Organizations Need It

8/05/2026

MLOps solves the model deployment and maintenance problem. What it is, what problems it addresses, and when an organization actually needs it versus when.

Multi-Agent Systems: Design Principles and Production Reliability

Multi-Agent Systems: Design Principles and Production Reliability

8/05/2026

Multi-agent systems decompose complex tasks across specialized agents. Design principles, failure modes, and when multi-agent adds value vs complexity.

H100 GPU Servers for AI: When the Hardware Investment Is Justified

H100 GPU Servers for AI: When the Hardware Investment Is Justified

8/05/2026

H100 GPU servers deliver peak AI performance but cost $200K+. When the spend is justified, what configurations to consider, and common procurement mistakes.

MLOps Tools Stack: Experiment Tracking, Registries, Orchestration, and Serving

MLOps Tools Stack: Experiment Tracking, Registries, Orchestration, and Serving

8/05/2026

MLOps tools span experiment tracking, model registries, pipeline orchestration, and serving. How to choose what you need without over-engineering the.

LLM Types: Decoder-Only, Encoder-Decoder, and Encoder-Only Models

LLM Types: Decoder-Only, Encoder-Decoder, and Encoder-Only Models

8/05/2026

LLM architecture type—decoder-only, encoder-decoder, encoder-only—determines what tasks each model handles well and what deployment constraints it carries.

Embedded Edge Devices for CV Deployment: Jetson vs Coral vs Hailo vs OAK-D

Embedded Edge Devices for CV Deployment: Jetson vs Coral vs Hailo vs OAK-D

8/05/2026

Embedded edge devices for CV: NVIDIA Jetson vs Coral TPU vs Hailo vs OAK-D — power, inference throughput, and model optimisation requirements compared.

MLOps Pipeline: Components, Failure Points, and CI/CD Differences

MLOps Pipeline: Components, Failure Points, and CI/CD Differences

8/05/2026

An MLOps pipeline covers data ingestion through monitoring. How each stage differs from software CI/CD, where pipelines fail, and what each stage requires.

LLM Orchestration Frameworks: LangChain, LlamaIndex, LangGraph Compared

LLM Orchestration Frameworks: LangChain, LlamaIndex, LangGraph Compared

8/05/2026

LangChain, LlamaIndex, and LangGraph solve different problems. Choosing the wrong framework adds abstraction without value. A practical decision framework.

MLOps Infrastructure: What You Actually Need and When

MLOps Infrastructure: What You Actually Need and When

8/05/2026

MLOps infrastructure spans compute, storage, orchestration, and monitoring. What each component is for and when it's necessary versus premature overhead.

Generative AI Architecture Patterns: Transformer, Diffusion, and When Each Applies

8/05/2026

Transformer vs diffusion architecture determines deployment constraints. Memory footprint, latency profile, and controllability differ substantially.

MLOps Architecture: Batch Retraining vs Online Learning vs Triggered Pipelines

7/05/2026

MLOps architecture choices—batch retraining, online learning, triggered pipelines—determine model freshness and operational cost. When each pattern is.

Diffusion Models in ML Beyond Images: Audio, Protein, and Tabular Applications

7/05/2026

Diffusion extends beyond images to audio, protein structure, molecules, and tabular data. What each domain gains and loses from the diffusion approach.

Deep Learning for Image Processing in Production: Architecture Choices, Training, and Deployment

7/05/2026

Deep learning for image processing in production: CNN vs ViT tradeoffs, training data requirements, augmentation, deployment optimisation, and.

Hiring AI Talent: Role Definitions, Interview Gaps, and What Actually Predicts Success

7/05/2026

Hiring AI talent requires distinguishing ML engineer, data scientist, AI researcher, and MLOps engineer roles. What interviews miss and what actually.

Drug Manufacturing: How Pharmaceutical Production Works and Where AI Adds Value

7/05/2026

Drug manufacturing transforms APIs into finished products through formulation, processing, and packaging. AI improves process control, inspection, and.

Diffusion Models Explained: The Forward and Reverse Process

7/05/2026

Diffusion models learn to reverse a noise process. The forward (adding noise) and reverse (denoising) processes, score matching, and why this produces.

Enterprise AI Failure Rate: Why Most Projects Don't Reach Production

7/05/2026

Most enterprise AI projects fail before production. The causes are structural, not technical. Understanding failure patterns before starting a project.

Continuous Manufacturing in Pharma: How It Works and Why AI Is Essential

7/05/2026

Continuous pharma manufacturing replaces batch processing with real-time flow. AI-based process control is essential for maintaining quality in continuous.

Diffusion Models Beat GANs on Image Synthesis: What Changed and What Remains

7/05/2026

Diffusion models surpassed GANs on FID for image synthesis. What metrics shifted, where GANs still win, and what it means for production image generation.

What Does CUDA Stand For? Compute Unified Device Architecture Explained

7/05/2026

CUDA stands for Compute Unified Device Architecture. What it means technically, why it is NVIDIA-only, and how it relates to GPU programming for AI.

Data Science Team Structure for AI Projects

7/05/2026

Data science team structure depends on project scale and maturity. Roles needed, common gaps, and when a team of 2 is enough vs when you need 8.

The Diffusion Forward Process: How Noise Schedules Shape Generation Quality

7/05/2026

The forward process in diffusion models adds noise on a schedule. How linear, cosine, and custom schedules affect image quality and training stability.

AI POC Requirements: What to Define Before Building a Proof of Concept

6/05/2026

AI POC requirements must be set before development. Data access, success metrics, scope boundaries, and stakeholder alignment determine POC outcomes.

Autonomous AI in Software Engineering: What Agents Actually Do

6/05/2026

What autonomous AI software engineering agents can actually do today: code generation quality, context limits, test generation, and where human oversight.

How Companies Improve Workforce Engagement with AI: Training, Automation, and Change Management

6/05/2026

AI workforce engagement needs training, process redesign, and change management. How firms build AI literacy and manage the automation transition.

AI Agent Design Patterns: ReAct, Plan-and-Execute, and Reflection Loops

6/05/2026

AI agent patterns—ReAct, Plan-and-Execute, Reflection—solve different failure modes. Choosing the right pattern determines reliability more than model.

AI Strategy Consulting: What a Useful Engagement Delivers and What to Watch For

6/05/2026

AI strategy consulting ranges from genuine capability assessment to repackaged hype. What a useful engagement delivers, and the signals that distinguish.

Agentic AI in 2025–2026: What Is Actually Shipping vs What Is Still Research

6/05/2026

Agentic AI is moving from demos to production. What's deployed today, what's still research, and how to evaluate claims about autonomous AI systems.

Cheapest GPU Cloud Options for AI Workloads: What You Actually Get

6/05/2026

Free and cheap cloud GPUs have real limits. Comparing tier costs, quota, and what to expect from spot instances for AI training and inference.

AI POC Design: What Success Criteria to Define Before You Start

6/05/2026

AI POC success requires pre-defined business criteria, not model accuracy. How to scope a 6-week AI proof of concept that produces a real go/no-go.

Agent-Based Modeling in AI: When to Use Simulation vs Reactive Agents

6/05/2026

Agent-based modeling simulates populations of interacting entities. When it's the right choice over LLM-based agents and how to combine both approaches.

Best Low-Profile GPUs for AI Inference: What Fits in Constrained Systems

6/05/2026

Low-profile GPUs for AI inference are limited by power and cooling. Which models fit, what performance to expect, and when a different form factor wins.

AI Orchestration: How to Coordinate Multiple Agents and Models Without Chaos

5/05/2026

AI orchestration coordinates multiple models through defined handoff protocols. Without it, multi-agent systems produce compounding inconsistencies.

Talent Intelligence: What AI Actually Does Beyond Resume Screening

5/05/2026

Talent intelligence uses ML to map skills, predict attrition, and identify internal mobility — but only with sufficient longitudinal employee data.

AI-Driven Pharma Compliance: From Manual Documentation to Continuous Validation

5/05/2026

AI shifts pharma compliance from periodic manual audits to continuous automated validation — catching deviations in hours instead of months.

Building AI Agents: A Practical Guide from Single-Tool to Multi-Step Orchestration

5/05/2026

Production agent development follows a narrow-first pattern: single tool, single goal, deterministic fallback, then widen with observability.

Enterprise AI Search: Why Retrieval Architecture Matters More Than Model Choice

5/05/2026

Enterprise AI search quality depends on chunking and retrieval design more than on the LLM. Poor retrieval with a strong LLM yields confident wrong answers.

Choosing an AI Agent Development Partner: What to Evaluate Beyond Demo Quality

5/05/2026

Most AI agent demos work on curated inputs. Production viability requires error handling, fallback chains, and observability that demos never test.

AI Consulting for Small Businesses: What's Realistic, What's Not, and Where to Start

5/05/2026

AI consulting for SMBs starts with data audit and process mapping — not model selection — because most failures stem from weak data infrastructure.

Choosing Efficient AI Inference Infrastructure: What to Measure Beyond Raw GPU Speed

5/05/2026

Inference efficiency is performance-per-watt and cost-per-inference, not raw FLOPS. Batch size, precision, and memory bandwidth determine throughput.

How to Improve GPU Performance: A Profiling-First Approach to Compute Optimization

5/05/2026

Profiling must precede GPU optimisation. Memory bandwidth fixes typically deliver 2–5× more impact than compute-bound fixes for AI workloads.

MLOps Consulting: When to Engage, What to Expect, and How to Avoid Dependency

5/05/2026

MLOps consulting should transfer capability, not create dependency. The exit criteria matter more than the entry scope.

LLM Agents Explained: What Makes an AI Agent More Than Just a Language Model

5/05/2026

An LLM agent adds tool use, memory, and planning loops to a base model. Agent reliability depends on orchestration more than model benchmark scores.

GxP Regulations Explained: What They Mean for AI and Software in Pharma

5/05/2026

GxP is a family of regulations — GMP, GLP, GCP, GDP — each applying different validation requirements to AI systems depending on lifecycle role.

Engineering Task vs Research Question: Why the Distinction Determines AI Project Success

27/04/2026

Engineering tasks have known solutions and predictable timelines. Research questions have uncertain outcomes. Conflating the two causes project failure.

Back See Blogs
arrow icon