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AI Solutions Development

AI Agent & Agentic AI

Multi-agent systems engineered for production — not the demo. Orchestration, governance, observability, and the operational layer that keeps agents running long after launch.

Partnering with Leading Brands Across the Globe

Trusted by leading brands worldwide, we deliver scalable digital solutions that drive innovation, performance, and measurable business impact.

botPlan
HAL — Hindustan Aeronautics
Matrix
Eldermark
ShiftPixy
Sport Clips
Palo Alto Networks
CNH Industrial
Mother Dairy
TSI
See How We Deliver Impact

The Production Reality

Gartner projects 40% of enterprise applications will feature task-specific AI agents by year-end 2026. The same research projects 40% of agentic AI projects will be cancelled by 2027 — failing on cost, governance, or unclear ROI. Agentic AI is not a model — it's a system. Most agentic AI pilots fail because they're wired together with brittle prompt chains, no orchestration layer, no observability between agents, and no policy layer governing what each agent can do. They work for 60 days. They break in production. The QSS Thesis We treat agent orchestration with the same rigor we treat microservices — bounded contexts, contract tests, observability between agents, and a clear policy layer governing every action. The model is 10% of the work. The orchestration, governance, and operational layer is the other 90% — and that's where we engineer.

What QSS Delivers — 7 Layers of Agentic AI Engineering

Agent Design & Architecture

Single-agent vs. multi-agent decision framework. Bounded context design. Tool selection. Memory architecture. Reasoning vs. action separation.

Multi-Agent Orchestration

Orchestration framework selection (LangGraph, CrewAI, AutoGen, custom). Inter-agent contracts. Failure-mode handling. Concurrency and rate-limit management.

Tool & API Integration

Secure tool-use patterns. MCP (Model Context Protocol) integration. API authentication and rate limiting. Action-result validation. Idempotency for write operations.

Policy & Governance Layer

Tiered approval workflows. Action whitelisting. PHI/PII handling. Cost ceilings. Audit trail for every agent decision.

Observability & Monitoring

Per-agent latency and cost tracking. Drift detection. Reasoning trace logging. Tool-call success rates.

Production Deployment & Operations

Sandboxed CI environments. Shadow deployment. Gradual rollout. Named on-call ownership.

Continuous Improvement Layer

Eval harness for agent behavior. A/B testing across agent versions. Feedback loops for prompt and tool refinement.

The QSS Approach — Phased Engagement

1

Phase 1: Use Case Validation & Architecture (Weeks 1–3)

Single-agent vs. multi-agent decision. Bounded context mapping. Tool inventory. Cost-per-outcome modeling. Sprint 1 Architecture Contract signed before any code is written.

2

Phase 2: Agent Engineering & Tool Integration (Weeks 3–10)

Agent prompts engineered with eval-driven iteration. Tool integrations built with idempotency, retry logic, and audit logging. Inter-agent contracts implemented.

3

Phase 3: Governance, Observability & Safety Engineering (Weeks 6–14)

Policy-as-code controls applied. Audit-trail infrastructure deployed. Observability dashboards built. Incident response playbook written.

4

Phase 4: Pilot, Validation & Hardening (Weeks 12–18)

Shadow deployment alongside human workflows. Eval harness measuring accuracy, cost, latency. Adversarial testing for prompt injection and tool misuse.

5

Phase 5: Production Rollout & Handover (Weeks 18–24)

Gradual rollout to production traffic. Named on-call ownership. Training for internal operations teams. Quarterly re-evaluation cadence established.

Industry Applications

Use Case

What the Agent Does

Healthcare Prior Authorization

Multi-agent system reviews clinical documentation, applies payer rules, routes complex cases to humans, generates audit trails

BFSI Claims & Underwriting

Agent workflow validates claim data, cross-references policy terms, identifies fraud signals, escalates edge cases

Customer Support Resolution

Tier-1 resolution agent + escalation agent + knowledge synthesis agent + QA agent in coordinated workflow

Software Engineering Agents

Code review, bug triage, documentation generation, test authoring — with senior-engineer sign-off gates

Engagement Options

Single-agent MVP

$80K–$180K over 12–14 weeks

Multi-agent system

$200K–$450K over 16–22 weeks

Enterprise platform

$450K–$800K over 20–24 weeks

Why QSS for Agentic AI

Multi-agent production experience

not just prototype demos. Live engagements in healthcare, BFSI, and customer-support workflows.

OWASP Top 10 for Agentic Applications 2026 implementation across every agent engagement

Policy-as-code engineering

governance shipped from Sprint 1, not after the first incident

Senior AI engineers with hands-on LangGraph, CrewAI, AutoGen, and custom orchestration experience

Cost-per-outcome focus

we measure agentic ROI as business outcome per dollar, not token efficiency

Frequently Asked Questions

An AI agent is a single autonomous unit; agentic AI is the system architecture for multiple agents working together. A chatbot is an agent. A claims-adjudication workflow with three coordinated agents handling different tasks is agentic AI.

Use multi-agent when the task naturally decomposes into specialized sub-tasks with different reasoning patterns. Single-agent is simpler, cheaper, easier to govern. Multi-agent only wins when the decomposition genuinely improves quality or modularity.

Three layers: bounded context, policy-as-code, and human-in-the-loop gates. Each agent has a narrow scope. Every action is validated against policy before execution. High-risk actions require named human approval. Plus continuous observability — drift detection paged to on-call.

Single-agent MVP: $80K–$180K over 12–14 weeks. Multi-agent system: $200K–$450K over 16–22 weeks. Enterprise platform: $450K–$800K over 20–24 weeks. Ongoing operations: 15–25% of build cost annually.

Cascading inference architecture. Cheap fast models for routine sub-tasks; reasoning models reserved for the genuinely complex decisions. Most well-architected agent systems run at 1.5–2× the cost of standard LLM architectures, not 5–10×.

Three things engineered before the first incident: action reversibility for write operations, named on-call ownership for incident response, and a pre-tested incident response playbook that includes regulator notification when required. Engineer Agentic AI for Production — Not for the Demo Book a 30-minute architecture review with QSS's agentic AI engineers. We'll walk through your use case, the single-agent vs. multi-agent decision, and what a 12–24 week engagement would deliver. Book a 30-Min Agent Architecture Review →

Ready to Build Agents That Survive Production?

Tell us the workflow you want to automate — our senior engineers will map the orchestration, governance, and observability to get your agentic AI to production.

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