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AI gateways act as hubs that transform fragmented technologies—like legacy systems, AI models, and siloed data repositories— into cohesive, functional ecosystems. Instead of systems operating in isolation, gateways ensure they interact smoothly and efficiently.

AI Heuristics focus on “good enough” outcomes that balance speed with practicality. This approach enables AI to adapt dynamically to real-world constraints, making decisions that are fast, efficient, and often remarkably effective in scenarios where perfection is unnecessary or unattainable.

AI model governance provides the oversight necessary to manage risks, build trust, and align AI with societal priorities.

Natural Language Processing (NLP) is the branch of artificial intelligence that gives computers the ability to understand, interpret, and generate human language in a way that's both meaningful and useful. Think of it as teaching machines to read your texts, understand your voice commands, and even write you back—not with robotic, stilted responses, but with language that feels natural and human.

By tuning a single numeric value, you can shape your AI’s “voice” to be factually grounded or daringly imaginative. This single dial helps balance accuracy against imagination, making it an essential lever for tailoring AI to various tasks, from official statements to exuberant marketing copy.

These systems integrate advanced technologies like natural language processing (NLP) and machine learning (ML) to automate tasks, analyze risks, and streamline reporting processes.

An autonomous agent is an AI-powered system capable of making decisions and performing actions independently to achieve specific goals. They gather real-time data, evaluate possible actions based on programmed rules or learning models, and execute decisions to adapt to dynamic environments.

Batch inference emerges as a strategic alternative that handles large workloads in scheduled intervals.

It transforms raw data—like images, text snippets, or transaction records—into feature embeddings, enabling quick retrieval without brute-forcing every comparison.

Feature embeddings are numerical representations that convert complex data—such as text, images, audio, or code—into machine-readable formats that AI models can analyze. Think of embeddings as a map where data points are plotted based on their relationships; and AI uses this map to find patterns and make predictions.

Feature vectors are the numerical fingerprints of data, transforming raw information into structured representations that algorithms can analyze, compare, and learn from. By encoding the attributes and relationships of data into numerical values, feature vectors allow AI systems to identify patterns, classify data points, and make predictions with precision.

Few-shot learning is a machine learning technique that enables large language models (LLMs) to adapt to new tasks with minimal data. This approach eliminates the need for extensive retraining, allowing models to generalize effectively from just a handful of examples. The result is a system that is faster to deploy and more resource-efficient, even in data-scarce environments.

Function calling is what allows LLMs to go beyond conversation and actually execute actions. Instead of just describing how to complete a task, the model produces a structured command—typically in JSON—that an external system can execute.

Generative AI (GenAI) is an area of artificial intelligence focused on creating original content—be it text, images, audio, or video—by discovering and extrapolating patterns from massive datasets. Unlike traditional AI, which typically classifies data or predicts outcomes, GenAI ventures into more imaginative territory: it can compose music, craft immersive digital art, or even generate complex code.

Traditional search demands either carefully curated synonyms or enormous supervised data to be truly robust. HyDE flips this challenge: the system generates the missing context on the fly using a large language model (LLM), then retrieves documents by comparing them against this synthesized snippet.

LLM agents are autonomous extensions of large language models (LLMs), capable of interpreting complex instructions and executing tasks without human intervention. Unlike static models, LLM agents integrate generative capabilities with task-specific logic to dynamically adapt to changing requirements.

LLM inference is the process of applying a trained Large Language Model to generate meaningful outputs from new inputs in real time. It’s the operational phase where an LLM transforms its learned knowledge—gathered during training—into actionable results, whether by answering questions, synthesizing data, or automating workflows.

An LLM Proxy is an intermediary that filters queries, enforces security policies, and optimizes performance in AI workflows

LLMOps (Large Language Model Operations) is the set of practices, tools, and workflows that help organizations develop, deploy, and maintain large language models effectively. It's the behind-the-scenes magic that turns powerful AI models like ChatGPT from research curiosities into reliable business tools, handling everything from data preparation and model fine-tuning to deployment, monitoring, and governance.

Large Language Models (LLMs) are a class of AI systems trained on massive text datasets that enable them to produce and interpret language with striking nuance. These models handle tasks like reading comprehension, code generation, text translation, and more.

A llamafile is a self-contained software package, known as an executable, that contains everything you need to run a powerful AI model directly on your computer—without requiring cloud services or complicated installations

LoRA (Low-Rank Adaptation)—a parameter-efficient fine-tuning (PEFT) technique that dramatically reduces the number of trainable parameters while preserving performance.

Fine-tuning reconfigures a general LLM’s extensive knowledge into precise, context-rich capabilities, making it indispensable for real-world applications where mistakes cost money and credibility.

Model operationalization, often referred to as ModelOps, is the discipline of bringing trained artificial intelligence (AI) models out of the lab and into real-world production environments.

Multi-Agent AI (MAAI) is a system where multiple autonomous AI agents collaborate in real-time to solve complex problems. By dividing tasks and sharing information, these agents create scalable, flexible, and efficient solutions that adapt dynamically to changing environments.

Operational AI refers to a form of artificial intelligence designed to process data and take actions instantly. Unlike traditional AI systems, which analyze past data to provide insights, Operational AI works in dynamic, ever-changing environments. It doesn’t just suggest what might happen—it decides and acts in the moment.

Prompt Engineering is where linguistics, machine learning, and user experience intersect. By shaping the exact wording, structure, and style of the input, practitioners can significantly influence the quality of the output.

Retrieval-Augmented Generation (RAG) is a framework that enhances large language models (LLMs) by integrating a retrieval pipeline, allowing AI to pull in live, external knowledge before generating a response — RAG ensures that AI systems reference authoritative, up-to-date sources at inference time.

Semantic caching is an advanced data retrieval mechanism that prioritizes meaning and intent over exact matches. By breaking down queries into reusable, context-driven fragments, semantic caching allows systems to respond faster and with greater accuracy.

Synthetic data generation is the process of creating artificial data that mimics real-world datasets. This approach reduces privacy risks, enhances AI training, and helps companies bypass data collection challenges.

A Vector DB is a specialized database designed to store and query embeddings, which are numerical representations of unstructured data like text, images, or audio. This allows AI systems to retrieve data based on meaning and relationships rather than exact matches.

A vector store is a specialized database designed to organize and retrieve feature vectors—numerical representations of data like text, images, or audio. These stores are essential in AI and machine learning workflows, enabling high-speed searches, efficient comparisons, and pattern recognition across vast datasets.