It's a wrap! 2025
Introduction

In 2025, Simtel.AI found itself building two very different products that quietly shaped each other: Neonyte (www.neonyte.com) and Axon OS (www.axonos.ai). Neonyte, an e-commerce marketplace on the Open Network for Digital Commerce (ONDC), exposed the realities of operating inside a large, distributed system—millions of sellers, inconsistent catalogs, fragmented data, and no single source of truth. Automating catalog cleanup, normalization, and deduplication quickly became less of an engineering task and more of a systems problem. Alongside this, we were also generating large volumes of marketing content—images, video, and audio—adding another layer of long-running, compute-heavy workflows to the mix.
That work planted the seed for Axon OS. As AI automation platforms matured, it became clear that existing tools struggled with real-world demands: workflows broke at scale, orchestration was brittle, and speed degraded as complexity grew—especially once AI, media processing, and external systems were combined. What started as internal tooling to manage Neonyte’s catalog and content chaos evolved into a broader insight: AI workflows needed to be built for production, not demos. Axon OS was created to close that gap, treating scale, speed, and orchestration as first-class concerns.
Neonyte.com
What Worked
Building Neonyte as a buyer-side app on the Open Network for Digital Commerce (ONDC) flipped the usual marketplace playbook. Supply came pre-built. Millions of sellers were already on the network, which meant Neonyte could focus on demand, discovery, and user experience instead of onboarding merchants one by one. The protocol unlocked reach without ownership and scale without lock-in. For buyers, this translated into real choice; for sellers, visibility without surrendering control. The network did what platforms usually hoard—distribution.
The Challenges
The hard part was everything the protocol doesn’t solve. Catalog management emerged as the sharpest edge: the same product appeared multiple times, with different names, images, units, and prices. Deduplication wasn’t a cleanup task—it was a core product problem. Catalog quality varied wildly, making search relevance and trust fragile. Pricing added another layer of complexity, with inconsistent MRP, discounts, and regional variance across sellers. In a distributed marketplace, there is no single source of truth—only competing versions of it. Building a usable experience meant constantly reconciling that reality.
Axon OS: Building AI Workflows for the Real World
Axon OS didn’t start as a product idea.
It started as friction.
While working on Neonyte, we had to automate workflows that were messy by nature—catalog ingestion, enrichment, deduplication, validation, retries, rollbacks. These workflows were long-running and failure-prone. AI helped in parts, but the systems around it didn’t keep up.
Most AI automation tools assumed a clean world.
Small inputs.
Short-lived tasks.
Straight lines from start to finish.
That wasn’t our world.
The First Attempt
The first serious automation was built on n8n.
At first, it felt right. It was visual, flexible, and fast to prototype. For simple flows, it worked well enough. We shipped quickly and learned fast.
But as workflows grew heavier and more complex, the cracks showed.
Where It Broke
Complex automations needed constant workarounds.
State management was fragile.
Retries were coarse and unsafe.
Video and audio processing couldn’t run inside n8n at all. Those steps had to live in separate services, exposed as custom APIs, then stitched back into the workflow. What should have been one system became several loosely connected ones.
Each workaround solved a problem.
Together, they created a bigger one.
Patchwork Architecture
Over time, n8n stopped being the system and became the diagram.
Business logic lived in APIs.
Heavy computation lived elsewhere.
n8n just connected pieces it didn’t control.
Debugging meant jumping across tools.
Scaling meant adding more patches.
It worked—until it didn’t.
The Lesson
n8n wasn’t the wrong tool.
It just wasn’t built for production-grade AI orchestration.
When orchestration can’t own execution, complexity leaks everywhere. That insight became the foundation for Axon OS.
The Core Problems
As we looked closer, AI workflows failed in three predictable places.
Scale broke first. As data grew, workflows slowed or collapsed.
Speed followed. Latency compounded across steps until pipelines became unusable.
Orchestration failed last. Conditional logic, retries, human approvals, and state tracking were brittle or missing.
These weren’t edge cases.
They were the default.
Axon OS was designed with these failures in mind.
Axon OS: Why It Works
Axon OS works because it was designed as a system, not a collection of features. Every architectural choice came from production failures we had already experienced—especially while trying to scale AI-driven workflows beyond prototypes.
At the core of Axon OS is a template-based JSON schema for AI-native code generation. Instead of prompting LLMs with free-form instructions, workflows are defined using structured templates with explicit inputs, outputs, constraints, and validation rules. This gives AI just enough freedom to generate code, while keeping execution predictable. The result is repeatability without killing flexibility—something prompt-based systems consistently struggle with.
On top of this sits a drag-and-drop workflow UI, but the UI is not the system of record. It’s a projection of the underlying execution graph. Workflows can be authored visually, programmatically, or generated by AI itself without drifting out of sync. The UI helps humans reason about complexity; it doesn’t pretend the complexity isn’t there.
Under the hood, Axon OS is fully container-native. Every execution step runs inside isolated containers orchestrated by Kubernetes. This separation keeps workflow logic independent of compute concerns. Heavy workloads—video, audio, data processing, AI inference—run where they belong, without leaking operational complexity back into the orchestration layer.
Security was treated as a first-class constraint, not a feature add-on. Axon OS follows a zero-trust architecture by default. Credentials are never embedded in workflows or containers. Secrets are encrypted at rest, encrypted in transit, and ultimately stored in a secure vault. Execution uses short-lived tokens that expire automatically, minimizing blast radius even in failure scenarios. Trust is scoped, temporary, and explicit.
Orchestration is powered by a dedicated scheduler and worker system. The scheduler understands dependencies, parallelism, retries, and timeouts. Workers are stateless, disposable, and horizontally scalable. This makes long-running and high-volume workflows stable by default—not through retries layered on top of fragile systems.
At the center is the automated workflow execution engine. Inputs and outputs are resolved dynamically at runtime. Each node declares what it needs and what it produces; the engine handles wiring, propagation, and validation. This eliminated entire classes of glue code that previously lived in APIs, callbacks, and scripts.
Because state is tracked centrally and explicitly, workflows can pause, resume, replay, or partially re-execute without guesswork. Failures don’t force full restarts. Human approvals fit naturally into the flow. Observability is built in, not bolted on later.
Axon OS works because it treats AI as one component in a larger system—powerful, probabilistic, and unreliable on its own. By giving AI structure, boundaries, security, and orchestration, the system absorbs uncertainty and turns it into something usable.
Not faster demos.
But durable systems.
Why Stay Bootstrapped in the AI Era
In an age where AI startups raise millions on potential alone, staying bootstrapped looks counterintuitive. For us, it wasn’t hesitation—it was intent. AI moves fast, but hype moves faster, and capital often forces conclusions before systems have faced reality. Bootstrapping bought us time to let things break, learn from them, and rebuild without a narrative deadline.
Being bootstrapped kept us anchored to real usage instead of demos. If something didn’t scale, didn’t recover cleanly, or couldn’t explain its own failure, it simply didn’t ship. Revenue became the feedback loop. That discipline mattered more in AI, where impressive prototypes routinely collapse under production load.
It also preserved alignment. Without external pressure, we could choose reliability over growth, infrastructure over features, and correctness over novelty. Axon OS became shaped by operational truth, not pitch decks. Decisions stayed close to users and failures stayed visible.
Bootstrapping isn’t about rejecting capital forever. It’s about optionality. By staying independent early, we kept control over pace, architecture, and direction. In an AI era defined by noise, patience turned out to be a competitive advantage.
How AI Helped Us Build the Platform
AI didn’t replace engineering at Simtel.AI—it removed friction. Through Microsoft for Startups, we had effectively unlimited access to Copilot, and that changed the tempo of building entirely. Iterations became extremely fast. Ideas moved from thought to code in minutes. The cost of trying—and discarding—approaches dropped close to zero.
This speed mattered because we weren’t just writing features. We were testing architectures. Frameworks. Prompting techniques. Failure modes. Copilot handled the mechanical work while we focused on structure and intent. Engineers stopped worrying about syntax and started spending time on system boundaries and contracts.
A key accelerator was our JSON-driven, template-based architecture. Because workflows, prompts, and code generation were schema-first, we could rapidly experiment with different prompting strategies and execution patterns without rewriting the system. AI fit naturally into this model—it generated code within constraints, not around them. That kept iteration fast without letting complexity leak.
Compute support from Microsoft, NVIDIA, and AWS closed the loop. We could run real workloads, test failures at scale, and push the system hard without hesitation. The result wasn’t AI-built software—it was human-designed systems, accelerated by AI to a pace that would have been unrealistic just a year earlier.
Looking Ahead to 2026
By 2026, the focus shifts from building to proving. The core expectation is product–market fit—not as a declaration, but as a signal. Fewer conversations about what Axon OS could be, and more clarity around what it is consistently chosen for. Usage patterns, repeat deployments, and workflows that refuse to be replaced will matter more than feature velocity.
Sales will stay deliberate. The strategy isn’t broad outbound or hype-led adoption, but narrow, high-conviction entry points. Teams with real orchestration pain. Systems already buckling under scale, speed, or reliability issues. Early sales won’t be about volume; they’ll be about learning where the product holds strongest and where it doesn’t belong.
Revenue, at first, will trickle—not surge. That’s intentional. Early revenue is less about numbers and more about signal: who pays, why they stay, and what they rely on when things go wrong. If 2025 was about building something dependable, 2026 is about discovering where that dependability turns into a business.
What This Means for the Industry
We see this as a major step toward AI-native orchestration platforms. By aligning human-readable definitions with machine-executable workflows, we reduce friction, improve collaboration, and unlock entirely new possibilities for autonomous applications.
At Simtel.ai, we’re not just building tools — we’re building the language of the future for humans and machines to co-create software.
if you are interested, do checkout https://www.axonos.ai and use the free account to test your ideas!

