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Pillar 2

Agentic AI vs. Classic AI

How Agentic AI differs from classic AI in autonomy, goal orientation, tool use and multi-step decision-making.

For: Decision makers, IT managers, digitalization officers

Definition

Agentic AI refers to an AI paradigm in which software systems (typically based on foundation models) pursue goals autonomously or semi-autonomously: they perceive, plan, use external tools and data, execute actions and learn from the outcome, with minimal ongoing human intervention. Unlike classical and generative AI, which reactively classify or generate content, Agentic AI acts proactively, goal-oriented and in multiple steps. An "AI Agent" is the concrete technical artifact, while "Agentic AI" is the overarching class (IBM, 2026; McKinsey, 2025).

Key Takeaways

  • ✓Agentic AI is a paradigm of autonomous goal pursuit; an AI Agent is the concrete technical implementation within that paradigm: the terms are not synonymous (IBM Think, 2026).
  • ✓The four core properties that distinguish Agentic AI from classical and generative AI are autonomy, goal orientation, tool-use and multi-step decisions over a longer time horizon (IBM, NVIDIA, 2024–2026).
  • ✓Generative AI works reactively (prompt-response, single-turn), Agentic AI proactively and long-horizon; GenAI is frequently a component within agentic systems (IBM, Databricks, 2025).
  • ✓McKinsey 2025 (n=1,993): 62 percent of organizations are at least experimenting with AI agents, yet only 23 percent are scaling Agentic AI in at least one business function; in no single function is the scaling rate above 10 percent.
  • ✓Gartner predicts (June 2025) that over 40 percent of Agentic AI projects will be canceled by the end of 2027, due to unclear value contributions, escalating costs and inadequate risk controls.
  • ✓Agent-washing is the central market risk: according to Gartner (2025), out of thousands of vendors only about 130 have genuine agentic capabilities; the rest market chatbots or RPA as Agentic AI.
  • ✓In Germany, according to Bitkom 2025, 36 percent of companies with 20 or more employees use AI (almost double the 20 percent of the previous year); there is no separate Agentic AI metric for the DACH region, so global McKinsey data serve as a proxy.
  • ✓The EU AI Act has no dedicated AI Agent category; autonomous decisions can be classified as Annex III high-risk. Under the Digital Omnibus Regulation (EU) 2026/1744, the Annex III high-risk obligations apply from 2 December 2027 (informational, not legal advice).
  • ✓For irreversible or safety-critical actions, Human-in-the-Loop is indispensable; Anthropic additionally recommends the simplest solution as a matter of principle. Sometimes that means not building an agentic system at all (Anthropic, 2024).

What is Agentic AI, and what is it not?

Agentic AI is an AI paradigm in which software systems based on foundation models pursue goals autonomously or semi-autonomously. They perceive their environment, plan steps, use external tools and data, execute actions and learn from the outcome, with minimal ongoing human intervention. IBM Think (2026) formulates the canonical distinction most clearly: "Agentic AI is the broader concept of solving issues with limited supervision, whereas an AI agent is a specific component within that system." In other words: Agentic AI is the paradigm, the AI Agent is the artifact.

This distinction is more than terminological hygiene. In the DACH buying center, "Agentic AI", "AI Agent" and "Multi-Agent System" are regularly used synonymously in vendor marketing: this is factually incorrect and one of the main reasons why projects fail due to inflated expectations. A single AI Agent is a concrete implementation (model + tools + memory + loop). A Multi-Agent System is an architecture pattern with at least two coordinated agents. Agentic AI encompasses both as an overarching class.

An important note up front: even in mid-2026, the term "Agentic AI" is still not finally consolidated. An ISO/IEC standardization does not exist. Academic works (Sapkota et al. 2025; Schmitt et al. 2025; Schneider 2025) introduce their own taxonomies, and vendors vary in the details, for example, in whether deterministic workflows count as "agentic" (Anthropic: yes; Databricks: no). This definitional fuzziness is not a marginal detail but the actual reason why a clean distinction is necessary.

The four axes of distinction: autonomy, goal orientation, tool-use, multi-step decisions

What specifically distinguishes Agentic AI from classical and generative AI? Four properties form the core (IBM, 2024; NVIDIA, 2024–2026).

Autonomy. Classical machine learning (such as fraud scoring or churn prognoses) and Symbolic AI (rule-based Expert Systems) possess no autonomy in the action-theoretical sense: they deliver scores or inferences. Generative AI is reactive: a prompt is followed by a response. Agentic AI acts independently toward a goal and decides at runtime which steps are necessary. Gartner (2025) explicitly includes semi-autonomous systems here, relevant for regulated DACH industries, in which full autonomy is neither desired nor permissible.

Goal orientation. Generative AI completes patterns (pattern completion). Agentic AI pursues a predefined goal and derives sub-goals from it. IBM makes "goal-driven behavior" the core property; OpenAI defines agents minimalistically as systems that independently accomplish tasks on the user's behalf (2025).

Tool-use. Generative AI is at its core read-only: it generates text, image, audio or code, but does not trigger actions in external systems. Agentic AI invokes tools, uses APIs and can act directly on systems via computer-use. It is precisely this step that shifts the risk profile from the informational (hallucination, bias) to the operational (autonomous actions on live systems).

Multi-step decisions. Classical and generative AI typically work single-turn. Agentic AI operates long-horizon and multi-step following the pattern Plan → Execute → Reflect → Replan. NVIDIA frames this as a four-step loop: Perceive → Reason → Act → Learn.

Comparison matrix: from classical ML to Agentic AI

The following matrix classifies the paradigms along the central dimensions (sources: IBM; Databricks; Russell & Norvig 2020; Sapkota et al. 2025).

Dimension

Classical/Predictive ML

Generative AI

AI Agent (artifact)

Agentic AI (paradigm)

Input

Structured features

Prompts, multimodal

Prompts + tool outputs + memory

Goals + constraints + tool inventory

Output

Classification / score / prognosis

Text/image/audio/code

Actions + content + tool calls

End-to-end workflow results

Autonomy

None

Low (reactive)

Medium–high

High (multi-step goal pursuit)

Time horizon

Single-shot

Single-/short-multi-turn

Multi-step

Long-horizon

Reasoning

Statistical

Pattern completion

ReAct, Chain-of-Thought

Plan-Execute-Reflect-Replan

External action

None

None (read-only)

Tool calls, API-use

Tool-, API-, computer-use

Risk profile

Model bias

Informational (hallucination)

Operational

Operational (live systems)

Governance

Model monitoring

Output review

Tool permissions

Pre-action approval, audit trail

Use cases

Fraud scoring, forecasting

Drafting, Q&A, summarization

Service-desk agent, coding agent

Deep research, multi-system automation

Four maturity levels of agentic systems

Not every "agentic" system is equally autonomous. A helpful maturity logic distinguishes four levels (Sapkota et al. 2025; NVIDIA):

  1. Reactive Agent, reacts to input without persistent state; LLM plus a single tool call.
  2. Tool-using Agent, plans a tool sequence and maintains short-term memory; classical ReAct pattern.
  3. Goal-seeking Agent, sets sub-goals, self-corrects, plans across multiple steps (Chain-of-Thought plus reflection).
  4. Self-improving Agent, learns from outcomes and updates memory or skills (NVIDIA's "Data Flywheel").

The German discourse (Bitkom 2026) translates this evolution into a pragmatic adoption ladder: RPA → reactive GenAI assistants → autonomous Agentic AI. This staging helps decision-makers realistically locate their own maturity level, and not declare every tool call an "autonomous agent" already.

Market reality 2025/2026: hype and disillusionment

The figures paint a sober picture between departure and disillusionment. According to McKinsey State of AI (5 November 2025, n=1,993, 105 countries), 88 percent of organizations use AI, but only 31 percent scale enterprise-wide. With Agentic AI, 39 percent are experimenting, a further 23 percent are already scaling in at least one business function (together 62 percent overall engagement). What is decisive is the classification: In no single business function is the scaling rate above 10 percent. Broad eagerness to experiment meets narrow productive anchoring.

Gartner delivers the most-cited warning: over 40 percent of Agentic AI projects will be canceled by the end of 2027: the reasons are escalating costs, unclear value contribution and inadequate risk controls (press release, 25 June 2025). In the Gartner Hype Cycle 2025, AI Agents stood at the "Peak of Inflated Expectations", while generative AI slid toward the "Trough of Disillusionment". In 2026, a standalone Hype Cycle for Agentic AI appeared for the first time.

Note on classification: Gartner forecasts can be revised, and the Hype Cycle position is updated annually. These figures are to be read as analyst predictions, not as measured reality.

Agent-washing: the BS filter for the buying center

The most important practical risk in 2026 is called agent-washing: the relabeling of existing chatbots, RPA tools or hardwired workflows as "Agentic AI" without a substantial autonomous reasoning component. Gartner estimates that out of thousands of vendors only about 130 possess genuine agentic capabilities (2025). This figure is an analyst estimate and not reproducible, but it illustrates the magnitude of the problem.

For vendor evaluation, three test questions are helpful: Does the system make its own decisions at runtime about the solution path, or does it follow a hardcoded procedure (in which case it is RPA)? Does it select tools dynamically, or does it invoke a predefined API sequence? Does it plan across more than three steps with correction loops, or is it a single LLM call with RAG? Gartner itself notes that current models do not yet have the maturity to fully pursue complex business goals autonomously over time: "agentic" is therefore not synonymous with AGI.

DACH context: sovereignty, skepticism, regulation

For the DACH region, no separate Agentic AI adoption metric exists. Bitkom Research 2025 measures AI broadly: 36 percent of German companies with 20 or more employees use AI, almost double the 20 percent of the previous year (telephone survey, n=604). As a proxy for agentic adoption, the global McKinsey values (23 percent scaling) serve, which should be explicitly labeled as such.

Characteristic is the regulatory sensitivity: 56 percent of the surveyed companies see the EU AI Act as a disadvantage, and 93 percent would prefer an AI provider from Germany. Top hurdles are legal uncertainty (53 percent), lack of know-how (53 percent) and lack of personnel resources (51 percent). This explains the strong demand among German companies for sovereign stacks and Human-in-the-Loop concepts.

The following notes are informative and do not replace a legal review.

The EU AI Act has no standalone "AI Agent" category. Agentic capabilities are captured via existing mechanisms. Art. 50 (transparency obligations) has applied since 2 August 2026 and covers direct human-machine interaction. If an agent autonomously makes decisions in sensitive areas such as employment, education, creditworthiness or critical infrastructure, the system can fall under Annex III (High-Risk).

The Digital Omnibus is now law. Regulation (EU) 2026/1744 was published in the Official Journal on 24 July 2026 and has been in force since 27 July 2026. This postpones the high-risk obligations: according to the European Commission's timeline, they apply to Annex III systems from 2 December 2027 instead of 2 August 2026, and to AI in products covered by Annex I from 2 August 2028. GPAI obligations for foundation models as agent backbones have been in force since 2 August 2025.

Additionally relevant: GDPR Art. 22 (prohibition of solely automated individual decisions with legal or significant effect), the AI literacy obligation from AI Act Art. 4 (since 2 February 2025) as well as co-determination rights of the works council under BetrVG (DE) or ArbVG (AT) when deploying agentic systems in the workplace. The Omnibus softened Art. 4: providers and deployers must still take measures to support the AI literacy of their staff, but according to the European Commission the law no longer prescribes a specific level. Before any deployment, the rule is: legal review recommended.

Outlook and practical note

Agentic AI is the plausible next stage after generative AI, but not the right architecture for every use case. The most robust rule of thumb comes from Anthropic (2024): "we recommend finding the simplest solution possible, and only increasing complexity when needed. This might mean not building agentic systems at all." Pure Q&A or content generation is covered by GenAI with RAG; deterministic procedures belong in a workflow engine or RPA. Agentic AI only justifies itself once a task is multi-step, requires dynamic planning and triggers external actions.

Three practical notes for DACH decision-makers: First, the data architecture first: agents on data silos are a known source of error. Second, mandate Human-in-the-Loop for irreversible actions; security tests are not optional (an academic red-team test in 2025 found all 22 LLMs tested to be attackable, cited via Bitkom). Third, rely on open standards such as MCP (Spec 2025-11-25, donated to the Linux Foundation) and A2A to avoid vendor lock-in. ROI should be measured not by headcount reduction but by decision latency, quality and throughput. Those who proceed this way separate genuine agentic value from the marketing term, and that is precisely what matters in 2026.