The evolution of agentic AI in enterprise automation

Artificial intelligence is no longer confined to predicting outcomes or generating content. A new path is emerging, one defined by agentic AI systems that reason, plan and act with intent. This shift creates automation that doesn’t just follow a script but understands goals and adjusts to meet them.
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1. What's happening in automation?

Artificial intelligence (AI) is no longer confined to predicting outcomes or generating content — the generative AI (genAI) and machine learning (ML) models you’re probably familiar with. A new path is emerging, one defined by agentic AI systems that reason, plan and act with intent.

Unlike traditional AI agents that execute fixed instructions, agentic AI works as an adaptable and autonomous layer. With it, you can achieve fully AI-powered orchestration for enterprise workloads. That’s when automation doesn’t just follow a script but understands goals and adjusts to meet them. This shift also invites stronger human oversight to keep autonomy aligned with policy.

Just as workload automation evolved from simple job scheduling to Service Orchestration and Automation Platforms (SOAPs), agentic AI represents the next stage of a technology that is revolutionizing business operations and changing the meaning of digital transformation.

2. Early foundations: Task scheduling and rule-based automation

If you want to find the roots of enterprise automation, you have to go back to something surprisingly simple: the cron job. These early scripts and platform schedulers were built to automate repetitive tasks, such as database backups, log rotations and batch processing. They worked reliably, but only if everything went according to plan.

Like early symbolic AI, these systems were rule-based and deterministic. They didn’t adapt to change or handle complexity, but followed explicit instructions and produced predictable, one-dimensional results.

Their limitations became obvious as organizations adopted more cloud-based and data-driven architectures. Without cross-system orchestration, IT teams had to manually intervene whenever a dependency failed or a data source lagged behind. These systems could automate, but they couldn’t think. They lacked the adaptability and context-awareness that define intelligent automation today, especially when tasks break into subtasks across multiple platforms. In software development, for example, a missed artifact or late dependency could stall an entire release plan.

3. When automation learned to think in systems

The next evolution came with workflow orchestration, which connected multiple jobs into coordinated workflows across applications and platforms. Instead of isolated scripts, organizations began designing end-to-end workflows that shared real-time data and triggered actions based on business events.
Workload automation tools started spanning hybrid ecosystems, from legacy systems to cloud services, ERP platforms like SAP and modern APIs. This development paralleled progress in AI algorithms, which were becoming more context-aware and iterative.

SOAPs, as defined by Gartner®, formalized this stage by introducing scalability, observability and interoperability as core design principles. These systems could handle complex workflows, coordinate across departments and reduce manual oversight. Automation had matured — not just running tasks, but managing interdependencies, resolving bottlenecks and supporting business continuity.

The leap mirrored the transition in AI from symbolic logic to neural networks, deep learning and reinforcement learning, where systems began learning from feedback instead of relying solely on prewritten rules.

4. The rise of agentic AI

Enter agentic AI: a new generation of autonomous agents that use reasoning, planning and continuous learning to handle complex challenges. These AI agents extend the capabilities of traditional AI by maintaining memory, analyzing context and coordinating across multiple domains.

They do this by combining the power of large language models (LLMs), ML frameworks and natural language processing (NLP) to understand and react to dynamic environments. In practice, that means an agent can analyze datasets from multiple sources, make real-time decisions and adjust actions based on outcomes — a far cry from static automation scripts.

Agentic AI’s evolution can be seen in three overlapping phases:

  1. Reactive agents: Responding to specific inputs or triggers
  2. Proactive agents: Predicting needs and taking initiative
  3. Goal-oriented systems: Reasoning, learning and optimizing toward desired outcomes

In real-world use cases, agentic AI is already transforming operations. In healthcare, it can analyze patient data to schedule care pathways automatically. In supply chain management, it balances logistics flows when real-time data shows delays. In cybersecurity, it coordinates AI-driven incident response with minimal human intervention. In customer support, AI assistants triage cases and trigger runbooks across ITSM tools. These are not static bots but intelligent partners embedded in enterprise ecosystems.

5. Workload automation meets agentic AI

Pairing workload automation with agentic AI, you get autonomous orchestration — systems that stay a step ahead rather than waiting for instructions.
With SOAPs, AI-powered orchestration adds a layer of intelligence that keeps business processes aligned with enterprise goals. So, instead of just reacting to job failures, these agents use sophisticated problem-solving skills to reason through issues and take proactive measures to keep systems running efficiently.

For example:

  • Real-time workload balancing ensures continuous uptime across distributed systems
  • Intelligent error handling identifies anomalies, isolates faulty dependencies and triggers corrective actions
  • Predictive resource allocation uses historical patterns and reinforcement learning to scale infrastructure before demand peaks

These capabilities bring agility and scalability to enterprise operations. It’s the difference between reacting to problems and preventing them — automation that doesn’t just execute tasks but orchestrates outcomes intelligently.

6. An emerging intelligence layer

The newest generation of automation fabrics weaves together APIs, data pipelines and workflows across cloud, on-premises and hybrid environments. When combined with agentic AI, these fabrics become the nervous system of the enterprise, continuously sensing, reasoning and adapting to the business environment.

You can think of this emerging intelligence layer as the central control plane for this new way of working. Agentic systems operating within these automation frameworks enable:

  • Contextual awareness across complex, interconnected environments
  • Cross-domain orchestration between critical systems like SAP, Oracle and multi-cloud services
  • Continuous optimization based on performance metrics and predictive analytics

These functions are the building blocks of true, real-time orchestration and AI-driven decision-making.

7. Insights from Gartner on automation and AI convergence

Gartner has tracked the evolution of automation platforms for SOAPs. These platforms are a significant leap beyond traditional job schedulers, acting as a central hub to provide a “single pane of glass” for managing complex workflows across hybrid IT environments, from on-premises systems to multi-cloud services. By orchestrating data pipelines, business processes and infrastructure, SOAPs establish the stable, governed foundation necessary for innovation.

The core principles of a SOAP — scalability, observability and interoperability — create the ideal groundwork for integrating next-generation AI. As Gartner research suggests, the convergence of AI with these robust orchestration platforms is critical for scaling automation responsibly.

By leveraging a SOAP, organizations can ensure that as they introduce agentic AI, they do so within a transparent framework that provides the necessary guardrails and capabilities for human oversight. Preparing for this shift means building on the capabilities that SOAPs provide to create the feedback mechanisms and high-quality data pipelines that intelligent systems require to learn safely over time. Treat this as a staged initiative rather than a single deployment.

8. The next phase of intelligent automation

We are entering the age of agentic orchestration, where automation doesn’t just execute but evolves. As enterprises begin to integrate agentic AI into their operations, they will shift from managing workloads to managing intelligence itself.

For IT and operations leaders, the benefits of agentic AI are clear:

  • Agility: Reacting to change instantly instead of waiting for a scheduled process to run
  • Efficiency: Optimizing compute, storage and data transfer without manual tuning
  • Resilience: Ensuring end-to-end reliability even when conditions shift unexpectedly

Agentic AI does not replace traditional automation; it enhances it by transforming workflow management into a continuous cycle of learning and improvement. The practical result is fewer interrupts for humans, fewer brittle handoffs and more consistent delivery against service-level agreements (SLAs).

This aligns with Redwood Software’s vision of automation fabrics, where AI capabilities can be seamlessly integrated into orchestration to create adaptive, autonomous ecosystems that can reason, act and optimize with purpose. It also sets the stage for AI solutions that span departments without raising integration risk.

Find out more about agentic AI and the role of orchestration in future-proofing your enterprise: Visit the AI hub.

Agentic AI and automation FAQs

What is agentic AI?

Agentic AI is a system that can make its own decisions. It’s capable of reasoning about goals, adapting to changes and learning from experience. Unlike traditional AI models that often stop at generating outputs, agentic systems are designed to be goal-oriented. They are given a high-level objective and can then reason about goals, create plans, adapt to changes and learn from experience to achieve them. It’s modeled on human-like initiative, where a system acts not just because it’s told to, but because it understands the "why" behind a task.

How does agentic AI differ from traditional AI?

Traditional AI and genAI models are skilled at recognizing patterns in vast amounts of data to make predictions or produce text, images and other content. However, they are generally passive — requiring human intervention to interpret and act on their outputs. Agentic AI systems are active participants. They use feedback loops, reasoning algorithms and reinforcement learning to act on their own, plan multi-step operations, assess risks and refine performance over time.

How is agentic AI used in automation and orchestration?

In enterprise automation, agentic AI enhances workload orchestration by adding reasoning and self-correction capabilities. It helps ensure that critical business processes, from data integration to supply chain workflows, execute reliably even under changing conditions. By analyzing real-time data, these agents can predict failures, reassign workloads and optimize task order automatically, leading to AI-powered orchestration that is faster and more adaptive.

What industries are leading in agentic AI adoption?

Industries that depend on real-time decision-making, such as healthcare, finance, manufacturing and cybersecurity, are leading adoption. In healthcare, agents monitor patient data and trigger updates across care systems. In finance, they manage compliance and fraud detection dynamically. In manufacturing, they streamline supply chain operations using real-time analytics. Each industry uses agentic AI differently, but the unifying benefit is resilience — automation that adapts instantly to change.

What’s next for agentic AI in enterprise automation?

The next frontier will be multi-agent ecosystems where AI systems collaborate, negotiate priorities and optimize processes collectively. These environments will blend AI applications, orchestration tools and human oversight into a single adaptive fabric. As datasets and algorithms improve, enterprises will see the emergence of autonomous systems capable of running complex workflows end to end — safely, transparently and with measurable business value.