Generative AI is deceptively simple: a user types in a question and receives an immediate response. The immediacy, context, and confidence associated with the standard generative AI interaction makes it look fairly simple. However, organizations trying to build enterprise-grade generative AI solutions in procurement must take a few technological components into consideration.
1. The Initial Prompt
The initial prompt is the user’s question, instruction, or context-providing content that tells the model what to generate or do. It can be simple (“Say Hello”) or complex (“Summarize this contract, extract key dates, and evaluate compliance risks based on the attached policy”). Prompts define intent, structure, tone, and desired output format which means that prompt quality will often affect the quality of response one receives. Prompt engineering helps shape predictable and high-quality responses.
2. Grounded or Contextualized Prompts
Grounded prompts inject real-time, external, or enterprise-specific data into the prompt to guide the model toward factual and relevant output. This grounding often includes structured context like customer profiles, inventory records, contracts, policies, role descriptions, and instructions to regulate tone or outputs. These grounded prompts may use retrieval-augmented generation (RAG) or other context fusion techniques.
3. The Models (Large Language Model or Multimodal Model)
The model is the core generative engine for generative AI and it is typically a neural network (often transformer-based) trained to predict the next token or output based on the input sequence. These models can be text-only or support multi-modal text, image, code, or speech. The models are trained on large reams of data and responsible for generating coherent, relevant, and logical content.
4. Training Data
Training data is the foundational dataset used to pretrain the model and it defines the model’s initial knowledge and capabilities. The sources for this data may include books, web content, social media platforms, documentation, code repositories, public domain data, and other available text. Training data may also include supervised fine-tuning (RLHF or instruction-tuning) to align the model to human intent or expectation.
5. Output (Generated Content)
The output is the text, image, code, or logic generated by the model in response to a prompt. This is the “answer” that users receive when they ask generative AI for an answer. This output can range from natural language text, to structured formats (JSON, tables), to executable code.
6. APIs and Integration Layer
APIs allow a model to be embedded into business applications, workflows, or user interfaces. These APIs may call external systems or invoke tools, databases, and CRMs as part of the response process. When an application or external data is referenced by generative AI and this action is used to affect future responses and prompts, this combination often leads to an agentic workflow.
7. Agentic Workflows
Agentic workflows are multi-step processes where autonomous or semi-autonomous agents use models, tools, and memory to perform tasks over time. For example, a procurement agent may read an RFP response, pull in contract templates, and draft a response. These workflows may use planning, decision-making, tool-use, memory, and reasoning loops to get work done.
Planning: The system determines a multi-step path to accomplish a task.
Decision-making: The system evaluates conditions and chooses between options.
Tool use: The model uses one or more external tools strategically.
Memory: Context is retained across steps or interactions.
Autonomy: It operates semi-independently based on a task objective.
8. Retrieval-Augmented Generation (RAG)
RAG improves accuracy by retrieving relevant external documents or data and injecting them into the prompt. This approach combines a vector store for semantic search with the model’s generation capability. RAG is often used for helping with enterprise search, contract search, technical documentation, and policy compliance.
9. Memory and Session Context
Persistent memory enables the AI to remember past interactions, user preferences, or previous outputs across a session or multiple sessions. This memory can be short-term and session based or long-term and stored in external memory systems. This is essential for multi-turn conversations, task continuity, and personalization.
10. Governance, Guardrails, and Monitoring
Generative AI in the business world requires governance and guardrails to ensure reliability. Businesses are constrained by a variety of laws, compliance issues, and customer expectations that lead to monitoring for bias, toxicity, data leakage, and output quality. Generative AI governance can include content filters, feedback loops, audit trails, and even human-in-the-loop feedback in some cases. Each of these steps comes with its own set of tradeoffs across performance, trust, and practical utility. But this consideration is crucial for regulated industries and enterprise use cases.
11. Fine-Tuning and Customization
Models can be fine-tuned on domain-specific data such as legal, financial, or procurement data to improve performance and alignment. Customized efforts may also include supervised fine-tuning, prompt tuning, or low-rank adaptation (LoRA) to enable domain fluency and use-case specialization.
12. Enterprise Data Integration and Access Controls
Generative AI strategies for the enterprise must include secure integration with internal systems. Generative AI must respect access permissions, role-based visibility and access, and data residency requirements. As companies align generative AI to their data, they must also consider how identity management systems (SSO, RBAC) and enterprise APIs will be integrated into usage.