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Modular SLM Architecture for Enterprise AI

Executive Summary

Enterprise organizations face a critical trilemma when adopting AI for operational intelligence: they can have powerful AI insights, complete data privacy, or cost efficiency—but current solutions force them to sacrifice at least one.

AppLeap solves this trilemma through a modular Small Language Model (SLM) architecture that deploys specialized, task-specific models directly within customer infrastructure. This approach delivers the natural language capabilities of large language models at a fraction of the cost, while ensuring sensitive operational data never leaves the organization's control.

Key Benefits: 100x lower inference costs compared to cloud LLMs, complete data privacy with on-premise deployment, and organization-specific AI that actually understands your infrastructure.

The Problem: Enterprise AI's Impossible Choice

Data Gravity Challenge

Modern enterprises generate massive volumes of operational data—alerts, logs, metrics, and incidents—across dozens of monitoring tools. This data contains sensitive information about infrastructure topology, security configurations, and business operations. Sending this data to external AI services creates unacceptable risks for most organizations.

Cost Explosion

Cloud LLM APIs charge $0.03-0.06 per 1K tokens. For an enterprise processing 10 million operational queries annually, this translates to $300,000-600,000 in API costs alone—before accounting for data preparation, integration, or operational overhead.

$300K+
Annual Cloud LLM Cost
10M+
Queries per Year
50+
Monitoring Tools

Generalization Gap

Generic LLMs don't understand your service naming conventions, infrastructure topology, or operational runbooks. They can't distinguish between "prod-api-west-2" and "staging-api-east-1" or know that your "payment-svc" incidents typically relate to your "redis-cluster-primary."

The Solution: Modular SLM Architecture

AppLeap takes a fundamentally different approach: instead of one large, general-purpose model, we deploy multiple small, specialized models—each optimized for a specific task in the operational intelligence pipeline.

Core Architecture Components

Natural Language Parser

~30M parameters

Converts user queries into structured intent + entities. Handles operational terminology and abbreviations.

Alert Correlation Engine

~50M parameters

Groups related alerts across tools and time windows. Identifies incident patterns and relationships.

Root Cause Analyzer

~100M parameters

Traces causal chains through infrastructure dependencies. Our most sophisticated model for complex reasoning.

Runbook Recommender

~50M parameters

Matches incidents to relevant procedures and historical resolutions from your knowledge base.

Summary Generator

~50M parameters

Produces human-readable incident summaries and status updates for different audiences.

Anomaly Classifier

~20M parameters

Lightweight model for real-time alert scoring and noise reduction at ingestion time.

Why Small Models Win

Our architecture leverages several key advantages of smaller, specialized models:

Cost Comparison

The economics of our approach are compelling when compared to alternatives:

Solution Annual Cost (10M queries) Data Privacy Customization
GPT-4 / Claude API $300,000 - $600,000 ❌ External ❌ Generic
Self-hosted LLaMA 70B $50,000 - $100,000 ✓ On-premise ⚠️ Limited
Traditional AIOps $150,000 - $300,000 ⚠️ Varies ❌ Rules only
AppLeap SLMs $2,000 - $5,000 ✓ On-premise ✓ Full custom

Training Methodology

Our models go through a three-stage training pipeline designed to balance general capability with organization-specific knowledge:

Stage 1: Domain Pre-training

Base models are pre-trained on publicly available operational data including monitoring documentation, incident reports from open-source projects, and IT operations literature. This gives models foundational understanding of operational concepts.

Stage 2: Task-Specific Fine-tuning

Each model is fine-tuned for its specific task using curated datasets. The Alert Correlation model trains on millions of synthetic alert sequences; the Root Cause Analyzer trains on incident-resolution pairs.

Stage 3: Customer Adaptation

This is where the magic happens. Using LoRA (Low-Rank Adaptation) fine-tuning, we adapt models to each customer's specific environment in 4-8 hours. The model learns your service names and naming conventions, infrastructure topology and dependencies, historical incident patterns, team terminology and abbreviations, and runbook procedures and best practices.

Training Time: 4-8 hours on a single A10/A100 GPU to fully customize models to your organization.

Deployment Architecture

AppLeap supports three deployment models to meet different enterprise requirements:

On-Premise Deployment

Complete stack runs within customer data center. All data stays on-premise and models are trained locally. Ideal for highly regulated industries and air-gapped environments.

Customer VPC Deployment

AppLeap components run in customer's cloud VPC. Data never leaves customer's cloud account. Supports AWS, Azure, and GCP.

Hybrid Deployment

Inference runs on-premise; training happens in isolated cloud environment. Balances capability with compliance requirements.

Security & Compliance

Our architecture is designed for enterprise security requirements from the ground up:

ROI Analysis

Organizations deploying AppLeap typically see value across multiple dimensions:

Conclusion

The modular SLM architecture represents a fundamental shift in how enterprises can leverage AI for operational intelligence. By combining specialized small models with on-premise deployment and rapid customization, AppLeap delivers the natural language capabilities organizations need without compromising on cost, privacy, or accuracy.

The future of enterprise AI isn't about bigger models—it's about smarter, more specialized models that truly understand your organization.

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