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Russian Retail Company Reduced Return Processing Time by 85%: How Three AI Agents Replaced a Five-Person Department

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ASCN Team
31 July 2026
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In early 2026, a Russian retail company with over 200 sales points and 15,000 orders per day faced a challenge in processing customer returns. Each return required 42 minutes of operator work, and errors led to losses. After implementing a system of three AI agents, orchestrated together, processing time was cut to 6 minutes, operator workload dropped by 80%, and three agents effectively replaced a five-person department.

In large-scale retail, where returns are in the thousands, manual processing of each case isn't just hours of work; it's direct losses from delays, errors, and dissatisfied customers. Operators burn out on routine tasks, the company loses money, and solving this problem seems impossible due to the complexity and unpredictability of each situation. However, this burden can be alleviated, and it doesn't require total automation.

The Pain of Manual Returns: 42 Minutes Per Case

Before the implementation of AI agents, the customer return processing in the company was multi-stage and labor-intensive. Operators had to manually verify order information, analyze defect photos, coordinate actions with the logistics department, communicate with the client, and update data in the 1C accounting system. On average, each return took 42 minutes.

With an order volume of 15,000 per day, even a small percentage of returns created an enormous burden on the support department, which consisted of seven operators. Furthermore, human error led to 14% of mistakes: incorrect defect categorization, missed coordination steps, resulting in additional costs and customer dissatisfaction.

Why Monolithic AI Solutions Failed

The company had previously attempted to automate support using single AI agents. However, the results were modest: such "monolithic" systems could only handle 25–40% of scenarios, often "froze" in unusual situations, and required constant manual correction. The reason was that a single, universal agent could not deeply understand all aspects of the complex return process.

The key insight gained by the company was that AI agents are effective not as a complete human replacement, but as digital colleagues with narrow specializations. Just as in a traditional department, each employee has their area of expertise, AI agents should be specialized to perform specific tasks. This led to the idea of orchestration, meaning the coordination of several highly specialized agents.

How the AI Agent System Was Designed

The solution's architecture was built on a three-tier scheme, simulating the work of a well-coordinated department:

  • Coordinator Agent (Level 1). Its role is that of a "project manager." It receives an incoming customer request, breaks it down into subtasks, distributes them among specialized agents, and then collects the final result. The coordinator uses routing rules based on keywords (e.g., "return" directs the request to the returns agent, "defect" to the quality agent) and has a large context window (128K tokens) to store the full dialogue. It does not generate the final response to the client but manages the process.
  • Specialized Agents (Level 2). These are the executors, each responsible for their specific area. For example, a returns agent handles everything related to the product return process, while a quality agent analyzes defect information. Their high accuracy (90%+) is achieved through narrow specialization.
  • Memory and Learning (Level 3). The system has short-term memory (the context of the current dialogue) and long-term memory (a database of resolved cases with tags, e.g., "false defect," "damaged packaging"). If an operator marks a solution as incorrect, the agents are retrained on these examples daily, continuously improving their performance.

For integration with existing systems, REST APIs for 1C:UT 11.4, a mail server, and internal storage for photos were used. 17 business cases were developed for routing, for example, "return without defect under ₽1000" was automatically approved by the system.

Implementation and Overcoming Challenges

Implementation began with a pilot project. The first three weeks showed impressive results. However, there were also challenges:

  • Legacy Integrations. The outdated version of 1C:UT 11.4 did not have a native REST API. An intermediate adapter had to be developed in Python using COM objects, adding 5 days to the development timeline.
  • Non-standard Photos. The quality agent made errors when analyzing blurry or poorly lit photos from clients. The solution: a rule was added—if the agent's confidence was below 80%, it would request a new photo from the client.
  • Operator Training. In the early days, operators tried to interfere with the agents' work, duplicating actions. A clear protocol was introduced: intervene only when the status is "requires intervention."
  • Inference Cost. The multimodal model for photo analysis was expensive ($0.012 per query). Optimization included compressing images to 512px and caching results for repeated queries for the same order.

Despite these complexities, the specialization of the agents allowed for over 90% accuracy on narrow tasks, whereas the monolithic agent only showed 65%. The coordinator effectively managed context, and integration with 1C eliminated manual data entry.

Results

Metric Before AI Agents After AI Agents
Average return processing time 42 minutes 6 minutes
Operator workload 100% −80%
Error rate 14% < 1%
Number of operators replaced by AI agents 0 5 (out of 7)

The results of the pilot project were impressive: three AI agents were able to take over work previously performed by five operators. The freed-up employees were shifted to more complex and creative tasks requiring empathy and a creative approach.

How to Replicate This in Your Business

AI agent orchestration pays off if you have:

  • Complex Processes. A process consisting of three or more sequential steps with clear rules.
  • Data Access. The ability to integrate with key systems (CRM, accounting systems, email) via API.
  • High Routine Volume. Over 40% of employee time is spent on routine operations with predictable outcomes.
  • High Cost of Error. Human errors are more expensive than setting up and maintaining AI agents.

Where to start:

  • Decompose the Process. Begin not by choosing a model, but by detailing the process steps. Identify stages where decisions are made according to clear rules—this is the ideal area of responsibility for agents.
  • Specialize Agents. Instead of one "universal" agent, create several highly specialized ones. Three agents with 90% accuracy will be more effective than one with 65%.
  • Integrate with Tools. An agent with access to 1C and email will be far more useful than the most powerful model without integrations.
  • Keep Humans in the Loop. The goal is not 100% automation, but to minimize routine tasks so that operators can focus on exceptional cases and tasks requiring a human touch.

If this case sounds like what's happening in your company, our manager can help: he'll analyze your business and niche for free and point out where an AI agent would bring a real result in your case. Message the manager

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Russian Retail Company Reduced Return Processing Time by 85%: How Three AI Agents Replaced a Five-Person Department
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