Thought Leadership
Why are my AI agents so smart, yet so dumb?

Rich Byard
Chief Technology Officer
In boardrooms and engineering hubs, the conversation has shifted rapidly from “What is Generative AI?” to “How do we deploy it safely and effectively?” At Cyferd, we exist at the intersection of this challenge, providing the platform infrastructure that turns raw model capability into usable enterprise applications.
Yet, as we integrate these increasingly powerful models, we encounter a persistent, frustrating paradox. We’re blown away by the capability of an AI agent that can draft a complex legal disclaimer in seconds or perform multi-step code analysis and seem incredibly adept and accurate. Yet, moments later, that same agent will confidently propose a solution that violates basic laws of physics, fundamental logic or globally accepted norms.
It begs the question that every enterprise leader is currently asking: “Why are these agents so incredibly smart, yet so unbelievably dumb?”
The answer lies not in a lack of computational power or training data, but in a fundamental disconnect between linguistic fluency and grounded understanding. To move beyond the current plateau of AI utility, we must recognize the limitations of today’s Large Language Models (LLMs), as powerful as they have become, and prepare for the necessary shift toward true World Models.
The Illusion of Understanding: The Limits of LLMs
Today’s dominant AI architecture, the Transformer-based LLM, is a marvel of statistical probability. Having ingested nearly the entirety of the public internet, these models have developed an uncanny ability to predict the next most likely token in a sequence.
When an agent powered by an LLM answers a question, it is not “thinking” in the human sense. It is navigating a vast, multi-dimensional map of language correlations. It is incredibly adept at mimicking the form of reasoning without necessarily possessing the substance of it.
They are, in effect, brilliant mimics. They know the words for every concept but lack the experiential anchor that gives those words meaning. An LLM knows the definition of “supply chain disruption,” but it does not “feel” the consequence of a delayed shipment in the way a logistics manager does. It operates in a universe of text, entirely separate from the universe of cause and effect.
The “Context Void”
This leads to the primary limitation of current agents: the lack of real context. In the industry, we often talk about “context windows” – the amount of information a model can process at one time. While these windows are expanding rapidly, feeding a model more text is not the same as giving it context. Real context is not just the preceding paragraphs of a conversation. It is the deeply ingrained, unspoken understanding of constraints.
- Physical Context: Knowing that two objects cannot occupy the same space at the same time.
- Temporal Context: Understanding that actions taken now have irreversible consequences later.
- Business Context: Grasping that a “technically correct” efficiency gain might be possible, but is it acceptable for regulatory compliance, brand reputation risks or basic morals.
The Horizon: From Language Models to World Models
To bridge the gap between “smart” (fluent) and “intelligent” (capable), the industry must move toward what are often called “World Models.”
While an LLM predicts the next word in a sentence, a World Model attempts to predict the next state of an environment.
A true World Model doesn’t just process descriptions of a business process; it maintains an internal simulation of that process, governed by rules and cause-and-effect relationships. If an agent operating on a World Model proposes a change to a supply route, it doesn’t just generate text describing the change; it runs a simulation within its internal model to foresee the cascading effects on inventory, cost, and delivery times.
If LLMs are the “liberal arts majors” of the AI world – brilliant communicators with vast general knowledge -World Models are the “engineers,” with a deep understanding of the physics and constraints of the machinery they operate.
And if we think LLMs are power hungry, it’s a tiny fraction of the energy demands we’re looking at for world models. Google’s project suncatcher is a great example of the hurdles we face with the aim to compute in orbit capturing the unlimited power of the sun, whilst making it easier to keep things cool. It’s mind boggling yet intoxicating.
The Cyferd Perspective: Anchoring AI in Enterprise Reality
At Cyferd, we recognize that waiting for artificial general intelligence (AGI) to spontaneously develop a World Model is not a viable business strategy. We must actively construct the bridges between linguistic capability and operational reality.
We believe that for an enterprise, its data structure, business logic, and operational constraints are its “world.”
Our Neural Genesis (NG) platform is designed to mitigate the “smart yet dumb” paradox by enabling AI agents to be rooted in the organization’s reality, not just floating in an isolated world of their own. We ground them with the context of the tenancy, the context of the customer who owns that tenancy, we provide the structured environment with managed contexts enabling model testing and context evolution tools, we leverage the unified data layer to do some of the heavy data lifting, and the process logic of the applications so AI responses are grounded in a known world.
When an agent operates within the Cyferd ecosystem, it isn’t just relying on its pre-trained linguistic probabilities. It is being curated and managed, tested and refined, governed in its inputs and outputs and leveraging the irrefutable ‘facts’ of the organization’s data and processes.
Conclusion
We are currently living through the “uncanny valley” of functional AI. The agents are dazzling enough to be useful, yet flawed enough to require constant supervision. Acknowledging that our current tools are super-powered pattern matchers, lacking genuine understanding of cause and effect, is the first step toward maturity.
The future does not belong to bigger LLMs trained on more text. It belongs to systems that can marry linguistic fluency with a grounded, simulated understanding of the world they are tasked with managing. Until then, we must remain vigilant custodians of these brilliant, surprisingly naive new tools.
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Comparisons
BOAT Platform Comparison 2026
Timelines and pricing vary significantly based on scope, governance, and integration complexity.
What Is a BOAT Platform?
Business Orchestration and Automation Technology (BOAT) platforms coordinate end-to-end workflows across teams, systems, and decisions.
Unlike RPA, BPM, or point automation tools, BOAT platforms:
- Orchestrate cross-functional processes
- Integrate operational systems and data
- Embed AI-driven decision-making directly into workflows
BOAT platforms focus on how work flows across the enterprise, not just how individual tasks are automated.
Why Many Automation Initiatives Fail
Most automation programs fail due to architectural fragmentation, not poor tools.
Common challenges include:
- Siloed workflows optimised locally, not end-to-end
- Data spread across disconnected platforms
- AI added after processes are already fixed
- High coordination overhead between tools
BOAT platforms address this by aligning orchestration, automation, data, and AI within a single operational model, improving ROI and adaptability.
Enterprise BOAT Platform Comparison
Appian
Strengths
Well established in regulated industries, strong compliance, governance, and BPMN/DMN modeling. Mature partner ecosystem and support for low-code and professional development.
Considerations
9–18 month implementations, often supported by professional services. Adapting processes post-deployment can be slower in dynamic environments.
Best for
BPM-led organizations with formal governance and regulatory requirements.
Questions to ask Appian:
- How can we accelerate time to production while maintaining governance and compliance?
- What is the balance between professional services and internal capability building?
- How flexible is the platform when processes evolve unexpectedly?
Cyferd
Strengths
Built on a single, unified architecture combining workflow, automation, data, and AI. Reduces coordination overhead and enables true end-to-end orchestration. Embedded AI and automation support incremental modernization without locking decisions early. Transparent pricing and faster deployment cycles.
Considerations
Smaller ecosystem than legacy platforms; integration catalog continues to grow. Benefits from clear business ownership and process clarity.
Best for
Organizations reducing tool sprawl, modernizing incrementally, and maintaining flexibility as systems and processes evolve.
Questions to ask Cyferd:
- How does your integration catalog align with our existing systems and workflows?
- What is the typical timeline from engagement to production for an organization of our size and complexity?
- How do you support scaling adoption across multiple business units or geographies?
IBM Automation Suite
Strengths
Extensive automation and AI capabilities, strong hybrid and mainframe support, enterprise-grade security, deep architectural expertise.
Considerations
Multiple product components increase coordination effort. Planning phases can extend time to value; total cost includes licenses and services.
Best for
Global enterprises with complex hybrid infrastructure and deep IBM investments.
Questions to ask IBM:
- How do the Cloud Pak components work together for end-to-end orchestration?
- What is the recommended approach for phasing implementation to accelerate time to value?
- What internal skills or external support are needed to scale the platform?
Microsoft Power Platform
Strengths
Integrates deeply with Microsoft 365, Teams, Dynamics, and Azure. Supports citizen and professional developers, large connector ecosystem.
Considerations
Capabilities spread across tools, requiring strong governance. Consumption-based pricing can be hard to forecast; visibility consolidation may require additional tools.
Best for
Microsoft-centric organizations seeking self-service automation aligned with Azure.
Questions to ask Microsoft:
- How should Power Platform deployments be governed across multiple business units?
- What is the typical cost trajectory as usage scales enterprise-wide?
- How do you handle integration with legacy or third-party systems?
Pega
Strengths
Advanced decisioning, case management, multi-channel orchestration. Strong adoption in financial services and healthcare; AI frameworks for next-best-action.
Considerations
Requires certified practitioners, long-term investment, premium pricing, and ongoing specialist involvement.
Best for
Organizations where decisioning and complex case orchestration are strategic differentiators.
Questions to ask Pega:
- How do you balance decisioning depth with deployment speed?
- What internal capabilities are needed to maintain and scale the platform?
- How does licensing scale as adoption grows across business units?
ServiceNow
Strengths
Mature ITSM and ITOM foundation, strong audit and compliance capabilities. Expanding into HR, operations, and customer workflows.
Considerations
Configuration-first approach can limit rapid experimentation; licensing scales with usage; upgrades require structured testing. Often seen as IT-centric.
Best for
Enterprises prioritizing standardization, governance, and IT service management integration.
Questions to ask ServiceNow:
- How do you support rapid prototyping for business-led initiatives?
- What is the typical timeline from concept to production for cross-functional workflows?
- How do licensing costs evolve as platform adoption scales globally?
