The Challenge: Hidden Self-Service Content

Most support organisations already have the answers to their customers’ most common questions – buried inside FAQs, help centre articles, internal wikis, and legacy documentation. The problem is not a lack of content, but hidden self-service content that customers and even agents struggle to find. As a result, users give up on search, submit tickets for simple issues, and your team spends time copy-pasting what already exists.

Traditional approaches – adding more articles, reorganising menus, tweaking keyword-based search – are no longer enough. Static FAQ trees assume customers will navigate in the “right” way and use the “right” words. Legacy search engines match exact terms, but customers type symptoms, not titles: “can’t log in after password reset” instead of your article name “Account Recovery Procedure”. Even well-written content stays invisible if your systems cannot interpret natural language and intent.

The impact is significant. Hidden self-service content translates directly into avoidable contacts, higher support costs, and lower perceived responsiveness. Agents spend a large share of their day answering repetitive questions, handle times increase, and you need more headcount just to keep up. Strategically, you miss out on the deflection potential of your knowledge base and fall behind competitors who offer fast, AI-driven self-service instead of queues and email forms.

The good news: this is a solvable problem. With modern language models like ChatGPT, you can make existing content discoverable, conversational, and context-aware without rewriting your entire help centre from scratch. At Reruption, we’ve helped organisations turn underused documentation into effective self-service, and the rest of this page will walk you through a practical path to do the same in your customer service organisation.

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Our Assessment

A strategic assessment of the challenge and high-level tips how to tackle it.

From our work implementing AI in customer service, we see the same pattern: companies sit on a large pile of documentation but have no intelligent layer that connects customer intent with the right answer. Using ChatGPT to fix hidden self-service content is less about building a shiny chatbot and more about structuring knowledge, integrating with your existing tools, and setting clear deflection goals. Reruption’s hands-on engineering and Co-Preneur approach focus on turning ChatGPT from a generic model into a targeted support deflection assistant tailored to your context.

Start with a Clear Deflection Strategy, Not a Chatbot

Before deploying any ChatGPT customer service assistant, define what “good” looks like. Which contact types should be deflected by self-service? Which should still go to human agents? What is an acceptable automation rate without harming customer satisfaction? A clear deflection strategy prevents you from building a generic FAQ bot that pleases nobody.

Map your top 20–30 contact drivers from historical tickets and classify them into “must-automate”, “can-automate-with-guardrails”, and “human-only”. This strategic lens guides what ChatGPT should handle independently, when it should route to articles, and when it should escalate to agents with context. It also gives you measurable KPIs: deflection rate by topic, CSAT by channel, and containment rates.

Think in Knowledge Architecture, Not Just AI Features

Large language models are powerful, but they cannot fix a fundamentally broken knowledge base. A strategic move is to treat hidden self-service content as a knowledge architecture problem. What content do you have, how is it structured, which audiences does it serve, and where are the blind spots and contradictions?

Use ChatGPT offline first: have it analyse your FAQs, help centre, and internal docs to cluster topics, identify duplicates, and surface missing “how do I…” style content. This work turns your documentation into a structured asset that a ChatGPT-powered support assistant can reliably consume. Without this foundation, your AI layer will feel clever in demos but inconsistent in real traffic.

Align Customer Service, Product, and IT Around One AI Roadmap

Deflecting tickets with AI-powered self-service cuts across multiple teams. Customer service owns processes and quality; product & UX own the help centre and in-app experiences; IT or digital owns infrastructure and security. If each runs its own AI experiment, you end up with fragmented bots and no consolidated impact.

Set up a cross-functional AI working group that meets weekly during the initial rollout. Customer service brings real ticket data and quality standards, product translates them into journeys and UI, and IT ensures secure, compliant use of ChatGPT in the enterprise. This alignment is what turns isolated pilots into a sustainable capability instead of yet another tool.

Design Guardrails and Escalation Paths from Day One

Strategically, the risk in using ChatGPT for support deflection is not that it “doesn’t answer”, but that it answers incorrectly and confidently. To mitigate this, define from day one how the assistant should behave in ambiguous or high-risk scenarios. For example, it must not invent policies, cannot handle billing disputes autonomously, and should always offer escalation options.

Document explicit guardrails: which topics are excluded, what phrasing to use when unsure, and what triggers a handover to a human agent. Combine this with technical controls such as retrieval-augmented generation (RAG) restricted to your verified knowledge base. These strategic measures protect brand trust while still allowing meaningful automation.

Prepare Your Team for a Shift in Work, Not a Loss of Work

Rolling out AI self-service with ChatGPT changes the nature of frontline work: fewer password resets, more complex multi-step issues. If you position AI as a headcount reduction project, you will get resistance, low adoption, and poor feedback loops from the people who know customer pain points best.

Instead, communicate that the goal is to remove repetitive work and free agents for higher-value interactions. Involve experienced agents as “content owners” and reviewers of ChatGPT-generated answers. This creates ownership, improves quality, and ensures that your AI reflects real-world customer language, not just product documentation.

Using ChatGPT to surface hidden self-service content is most successful when you treat it as a strategic change in how customers access knowledge, not just as another widget on your website. With the right knowledge architecture, guardrails, and cross-functional alignment, you can materially reduce repetitive ticket volume while improving customer experience. Reruption combines deep engineering with a Co-Preneur mindset to help you design, prototype, and scale this capability; if you want to see how this could work with your real tickets and FAQs, it’s worth having a focused conversation.

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Real-World Case Studies

From Healthcare to News Media: Learn how companies successfully use ChatGPT.

AstraZeneca

Healthcare

In the highly regulated pharmaceutical industry, AstraZeneca faced immense pressure to accelerate drug discovery and clinical trials, which traditionally take 10-15 years and cost billions, with low success rates of under 10%. Data silos, stringent compliance requirements (e.g., FDA regulations), and manual knowledge work hindered efficiency across R&D and business units. Researchers struggled with analyzing vast datasets from 3D imaging, literature reviews, and protocol drafting, leading to delays in bringing therapies to patients. Scaling AI was complicated by data privacy concerns, integration into legacy systems, and ensuring AI outputs were reliable in a high-stakes environment. Without rapid adoption, AstraZeneca risked falling behind competitors leveraging AI for faster innovation toward 2030 ambitions of novel medicines.

Lösung

AstraZeneca launched an enterprise-wide generative AI strategy, deploying ChatGPT Enterprise customized for pharma workflows. This included AI assistants for 3D molecular imaging analysis, automated clinical trial protocol drafting, and knowledge synthesis from scientific literature. They partnered with OpenAI for secure, scalable LLMs and invested in training: ~12,000 employees across R&D and functions completed GenAI programs by mid-2025. Infrastructure upgrades, like AMD Instinct MI300X GPUs, optimized model training. Governance frameworks ensured compliance, with human-in-loop validation for critical tasks. Rollout phased from pilots in 2023-2024 to full scaling in 2025, focusing on R&D acceleration via GenAI for molecule design and real-world evidence analysis.

Ergebnisse

  • ~12,000 employees trained on generative AI by mid-2025
  • 85-93% of staff reported productivity gains
  • 80% of medical writers found AI protocol drafts useful
  • Significant reduction in life sciences model training time via MI300X GPUs
  • High AI maturity ranking per IMD Index (top global)
  • GenAI enabling faster trial design and dose selection
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AT&T

Telecommunications

As a leading telecom operator, AT&T manages one of the world's largest and most complex networks, spanning millions of cell sites, fiber optics, and 5G infrastructure. The primary challenges included inefficient network planning and optimization, such as determining optimal cell site placement and spectrum acquisition amid exploding data demands from 5G rollout and IoT growth. Traditional methods relied on manual analysis, leading to suboptimal resource allocation and higher capital expenditures. Additionally, reactive network maintenance caused frequent outages, with anomaly detection lagging behind real-time needs. Detecting and fixing issues proactively was critical to minimize downtime, but vast data volumes from network sensors overwhelmed legacy systems. This resulted in increased operational costs, customer dissatisfaction, and delayed 5G deployment. AT&T needed scalable AI to predict failures, automate healing, and forecast demand accurately.

Lösung

AT&T integrated machine learning and predictive analytics through its AT&T Labs, developing models for network design including spectrum refarming and cell site optimization. AI algorithms analyze geospatial data, traffic patterns, and historical performance to recommend ideal tower locations, reducing build costs. For operations, anomaly detection and self-healing systems use predictive models on NFV (Network Function Virtualization) to forecast failures and automate fixes, like rerouting traffic. Causal AI extends beyond correlations for root-cause analysis in churn and network issues. Implementation involved edge-to-edge intelligence, deploying AI across 100,000+ engineers' workflows.

Ergebnisse

  • Billions of dollars saved in network optimization costs
  • 20-30% improvement in network utilization and efficiency
  • Significant reduction in truck rolls and manual interventions
  • Proactive detection of anomalies preventing major outages
  • Optimized cell site placement reducing CapEx by millions
  • Enhanced 5G forecasting accuracy by up to 40%
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Airbus

Aerospace

In aircraft design, computational fluid dynamics (CFD) simulations are essential for predicting airflow around wings, fuselages, and novel configurations critical to fuel efficiency and emissions reduction. However, traditional high-fidelity RANS solvers require hours to days per run on supercomputers, limiting engineers to just a few dozen iterations per design cycle and stifling innovation for next-gen hydrogen-powered aircraft like ZEROe. This computational bottleneck was particularly acute amid Airbus' push for decarbonized aviation by 2035, where complex geometries demand exhaustive exploration to optimize lift-drag ratios while minimizing weight. Collaborations with DLR and ONERA highlighted the need for faster tools, as manual tuning couldn't scale to test thousands of variants needed for laminar flow or blended-wing-body concepts.

Lösung

Machine learning surrogate models, including physics-informed neural networks (PINNs), were trained on vast CFD datasets to emulate full simulations in milliseconds. Airbus integrated these into a generative design pipeline, where AI predicts pressure fields, velocities, and forces, enforcing Navier-Stokes physics via hybrid loss functions for accuracy. Development involved curating millions of simulation snapshots from legacy runs, GPU-accelerated training, and iterative fine-tuning with experimental wind-tunnel data. This enabled rapid iteration: AI screens designs, high-fidelity CFD verifies top candidates, slashing overall compute by orders of magnitude while maintaining <5% error on key metrics.

Ergebnisse

  • Simulation time: 1 hour → 30 ms (120,000x speedup)
  • Design iterations: +10,000 per cycle in same timeframe
  • Prediction accuracy: 95%+ for lift/drag coefficients
  • 50% reduction in design phase timeline
  • 30-40% fewer high-fidelity CFD runs required
  • Fuel burn optimization: up to 5% improvement in predictions
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Amazon

Retail

In the vast e-commerce landscape, online shoppers face significant hurdles in product discovery and decision-making. With millions of products available, customers often struggle to find items matching their specific needs, compare options, or get quick answers to nuanced questions about features, compatibility, and usage. Traditional search bars and static listings fall short, leading to shopping cart abandonment rates as high as 70% industry-wide and prolonged decision times that frustrate users. Amazon, serving over 300 million active customers, encountered amplified challenges during peak events like Prime Day, where query volumes spiked dramatically. Shoppers demanded personalized, conversational assistance akin to in-store help, but scaling human support was impossible. Issues included handling complex, multi-turn queries, integrating real-time inventory and pricing data, and ensuring recommendations complied with safety and accuracy standards amid a $500B+ catalog.

Lösung

Amazon developed Rufus, a generative AI-powered conversational shopping assistant embedded in the Amazon Shopping app and desktop. Rufus leverages a custom-built large language model (LLM) fine-tuned on Amazon's product catalog, customer reviews, and web data, enabling natural, multi-turn conversations to answer questions, compare products, and provide tailored recommendations. Powered by Amazon Bedrock for scalability and AWS Trainium/Inferentia chips for efficient inference, Rufus scales to millions of sessions without latency issues. It incorporates agentic capabilities for tasks like cart addition, price tracking, and deal hunting, overcoming prior limitations in personalization by accessing user history and preferences securely. Implementation involved iterative testing, starting with beta in February 2024, expanding to all US users by September, and global rollouts, addressing hallucination risks through grounding techniques and human-in-loop safeguards.

Ergebnisse

  • 60% higher purchase completion rate for Rufus users
  • $10B projected additional sales from Rufus
  • 250M+ customers used Rufus in 2025
  • Monthly active users up 140% YoY
  • Interactions surged 210% YoY
  • Black Friday sales sessions +100% with Rufus
  • 149% jump in Rufus users recently
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American Eagle Outfitters

Apparel Retail

In the competitive apparel retail landscape, American Eagle Outfitters faced significant hurdles in fitting rooms, where customers crave styling advice, accurate sizing, and complementary item suggestions without waiting for overtaxed associates . Peak-hour staff shortages often resulted in frustrated shoppers abandoning carts, low try-on rates, and missed conversion opportunities, as traditional in-store experiences lagged behind personalized e-commerce . Early efforts like beacon technology in 2014 doubled fitting room entry odds but lacked depth in real-time personalization . Compounding this, data silos between online and offline hindered unified customer insights, making it tough to match items to individual style preferences, body types, or even skin tones dynamically. American Eagle needed a scalable solution to boost engagement and loyalty in flagship stores while experimenting with AI for broader impact .

Lösung

American Eagle partnered with Aila Technologies to deploy interactive fitting room kiosks powered by computer vision and machine learning, rolled out in 2019 at flagship locations in Boston, Las Vegas, and San Francisco . Customers scan garments via iOS devices, triggering CV algorithms to identify items and ML models—trained on purchase history and Google Cloud data—to suggest optimal sizes, colors, and outfit complements tailored to inferred style and preferences . Integrated with Google Cloud's ML capabilities, the system enables real-time recommendations, associate alerts for assistance, and seamless inventory checks, evolving from beacon lures to a full smart assistant . This experimental approach, championed by CMO Craig Brommers, fosters an AI culture for personalization at scale .

Ergebnisse

  • Double-digit conversion gains from AI personalization
  • 11% comparable sales growth for Aerie brand Q3 2025
  • 4% overall comparable sales increase Q3 2025
  • 29% EPS growth to $0.53 Q3 2025
  • Doubled fitting room try-on odds via early tech
  • Record Q3 revenue of $1.36B
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Best Practices

Successful implementations follow proven patterns. Have a look at our tactical advice to get started.

Use ChatGPT to Audit Your Existing Help Centre and FAQs

Before launching any customer-facing assistant, use ChatGPT as an internal analysis tool. Export a representative sample of FAQs, help articles, and internal work instructions. Then systematically ask ChatGPT to cluster, summarise, and critique this content. The goal is to see your knowledge base from a customer’s perspective, in natural language, not from your menu structure.

Example prompt for content audit:
You are a customer service knowledge architect.
You will receive a list of FAQ and help center articles.
For these articles:
1) Group them into 10-15 customer-centric topics.
2) Identify duplicate or overlapping articles.
3) Highlight gaps: questions a customer might ask that are not well covered.
4) Rewrite 5 article titles into more conversational, problem-oriented titles.
Here are the articles:
[PASTE EXPORT HERE]

Use the output to consolidate duplicates, rename articles in customer language, and plan new content to fill gaps. This alone can make your existing search more effective, even before adding an AI layer.

Build a Retrieval-Augmented ChatGPT Assistant Over Your Knowledge Base

To avoid hallucinations and keep answers aligned with policy, configure ChatGPT with retrieval-augmented generation (RAG). In practice, this means indexing your verified help content (FAQs, knowledge base articles, policy docs) in a vector store and having ChatGPT answer only based on that content.

Example system prompt for a RAG-based assistant:
You are a customer support assistant for [Company Name].
Only answer questions using the information provided in the retrieved documents.
If the answer is not clearly contained in the documents, say:
"I don't have a reliable answer based on our current help content. Let me connect you to our support team."
Always:
- Quote the relevant article title.
- Provide a short, step-by-step answer.
- Link to the full article URL.

Technically, this requires: (1) extracting and cleaning your content, (2) embedding it with a vector model, (3) wiring a retrieval layer in front of ChatGPT, and (4) integrating the assistant into your web or in-app experience. Reruption typically validates this approach in a PoC before full rollout.

Turn Historical Tickets into Better Self-Service Content

Your past tickets are the best source of real customer language and edge cases. Use ChatGPT to mine them for patterns and then generate self-service content that actually mirrors how people ask questions. Start by exporting a few thousand resolved tickets (including category and resolution notes) and have ChatGPT suggest article structures.

Example prompt to derive self-service topics from tickets:
You are analyzing historical support tickets.
Goal: propose self-service help topics and draft article outlines.
For the tickets below:
1) Group them into 15-20 recurring issue types.
2) For each type, propose an FAQ question in customer language.
3) Outline a help article with:
   - Title
   - Short summary
   - Step-by-step resolution
   - Notes/limitations
Here are the tickets:
[PASTE ANONYMIZED TICKETS]

From there, you can either have ChatGPT draft full articles (reviewed by agents) or generate short, conversational snippets that your ChatGPT widget can reuse directly in conversations.

Embed ChatGPT as a Guided Front Door Before Ticket Submission

To maximise support deflection, don’t hide your AI assistant deep in the help centre. Place a ChatGPT-powered widget directly on key entry points: the “Contact us” page, in-app help icons, and high-traffic FAQ pages. Design the flow so that the assistant always attempts to resolve or route to content before exposing the ticket form.

Example conversation flow configuration:
1) User opens "Contact support".
2) Widget asks: "Tell me briefly what you need help with."
3) ChatGPT classifies intent and retrieves 1-3 relevant articles.
4) Widget replies:
   - Short answer using article content
   - Visible links: "Open full article" and "This didn't help, contact support".
5) If user chooses contact support:
   - Pre-fill ticket form with conversation transcript and detected category.

Measure how many users resolve their issues at step 4 versus escalating. Over time, optimise the prompts and article set to increase containment without making escalation feel blocked.

Auto-Suggest Knowledge to Agents Inside the Ticket View

Even if your initial focus is external deflection, use ChatGPT for agent assist to accelerate handle time and improve internal content utilisation. Integrate ChatGPT within your ticketing tool so that, as soon as a ticket is opened, relevant articles and a draft response are suggested to the agent.

Example agent-assist prompt:
You are an internal support copilot.
You will receive:
- The customer ticket (subject + body)
- A set of candidate knowledge articles (title + content + URL)
Tasks:
1) List the 3 most relevant articles with a one-line justification.
2) Draft a reply email in our tone of voice that:
   - Addresses the customer's specific situation
   - References 1-2 articles with links
   - Clearly explains next steps.
Here is the ticket:
[Ticket text]
Here are the articles:
[Article list]

Agents remain in control, but repetitive tickets go from minutes to seconds. This also reveals which articles are overused or underused, feeding back into your content strategy.

Instrument Everything: Track Deflection, CSAT, and Search Failures

To know whether your ChatGPT-powered self-service is working, you need robust measurement. At a minimum, track: (1) how many sessions start with the AI assistant, (2) how many end without a ticket (deflection rate), (3) CSAT or thumbs-up/down for AI answers, and (4) search failures where the assistant cannot find relevant content.

Key metrics and targets to configure:
- AI session start rate (target: >40% of help center visitors)
- Containment / deflection rate (target pilot: 20–30% of eligible topics)
- CSAT for AI-resolved sessions vs. human-resolved
- Top unresolved intents (feed into new content creation)
- Average handle time change for repetitive tickets

Implement lightweight logging of prompts, retrieved articles, and user feedback to continuously improve prompts and content. Over a 3–6 month period, it is realistic to achieve 20–40% deflection on the most repetitive categories while maintaining or improving customer satisfaction.

Expected outcomes when these practices are implemented together: a meaningful reduction in repetitive ticket volume (often 20–30% on targeted issue types), faster handle times for remaining tickets, higher discoverability of existing help content, and a more consistent support experience across channels.

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Frequently Asked Questions

ChatGPT can read and understand your existing FAQs, help articles, and internal docs in natural language. Instead of relying on exact keyword matches, it interprets what the customer is asking and retrieves the most relevant pieces of content.

Practically, you can use ChatGPT in two ways: internally, to audit and reorganise your knowledge base, and externally, as an AI assistant that sits in front of your help centre and suggests existing articles in a conversational way before a ticket is created.

You typically need three capabilities: (1) customer service leadership to define which ticket types should be deflected, (2) someone with technical skills (internal IT or a partner like Reruption) to integrate ChatGPT with your knowledge base and ticket system, and (3) content owners to review and maintain help articles.

You do not need a large data science team. Most of the work is configuration, prompt design, data preparation, and workflow design. We often start with a small joint team of 3–5 people from support, IT, and product to get a first prototype live.

If your help centre and ticket data are accessible, a focused team can get a ChatGPT-powered self-service pilot live within 4–8 weeks. In the first month after launch, you typically gather enough interaction data to tune prompts, content, and flows.

Meaningful, measurable results on deflection rates and handle time usually emerge within 2–3 months of iterative improvement. Full-scale rollout across all major contact reasons is more of a 6–12 month journey, depending on your complexity and change management speed.

The ROI comes from three levers: (1) fewer repetitive tickets reaching agents, (2) shorter handle time on remaining tickets thanks to better suggestions, and (3) improved customer satisfaction due to faster answers. For many organisations, even a 15–20% reduction in repetitive contacts in a few high-volume categories already covers the cost of the solution.

Because ChatGPT is consumption-based, infrastructure costs are relatively easy to model. The main investments are integration and change management. A simple business case compares current cost per ticket and volume in target categories with a conservative deflection scenario and improvements in agent productivity.

Reruption works as a Co-Preneur embedded in your organisation. We help you move from idea to a working AI self-service prototype quickly. Our AI PoC offering (9.900€) is designed to answer the core question: does ChatGPT reliably deflect your real support volume using your real FAQs and tickets?

In the PoC, we define the use case, select the right architecture (e.g. retrieval-augmented ChatGPT over your knowledge base), build a functioning prototype, and measure performance on speed, quality, and cost. Afterwards, we support you in rolling this into production, integrating with your ticketing tools, and enabling your team to operate and improve the solution over time – not via slide decks, but by shipping and iterating together.

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