AI-driven trend detection in customer support tickets

Your support dashboard shows a 20% increase in tickets — but you don't know why. We encountered this with a client managing 500+ agents: the stream of complaints drowns in noise. Without AI, these signals are lost in days of manual analysis. Our team of certified AI/ML engineers, with over 50 projec

AI Development Areas

Frequently Asked Questions

Latest works

  • image_web-applications_feedme_466_0.webp
    Development of a web application for FEEDME
    1285
  • image_ecommerce_furnoro_435_0.webp
    Development of an online store for the company FURNORO
    1241
  • image_logo-advance_0.webp
    B2B Advance company logo design
    696
  • image_crm_enviok_479_0.webp
    Development of a web application for Enviok
    982
  • image_logo-aider_0.webp
    AIDER company logo development
    919
  • image_crm_chasseurs_493_0.webp
    CRM development for Chasseurs
    1033

Your support dashboard shows a 20% increase in tickets — but you don't know why. We encountered this with a client managing 500+ agents: the stream of complaints drowns in noise. Without AI, these signals are lost in days of manual analysis. Our team of certified AI/ML engineers, with over 50 projects deployed, builds systems that automatically extract trends and turn them into actionable insights. This AI-driven system provides automated analytics for customer support, acting as an early warning system that detects anomalies and generates trend reports.

How we detect trends

Time series and anomaly methods: for each topic we build a time series of mention frequency. We use proven algorithms: Facebook Prophet, STL decomposition, CUSUM. Prophet is optimal for seasonal data — it automatically accounts for weekly and yearly seasonality and holidays, and is 30–40% better than ARIMA at reducing false positives. For example, on a project for a large e-commerce retailer, Prophet spotted a spike in delivery complaints 2 days earlier than the manual team.

Python code for Prophet trend detection
from prophet import Prophet import pandas as pd def detect_topic_trend(topic: str, daily_counts: pd.DataFrame) -> TrendAlert | None: model = Prophet(changepoint_prior_scale=0.1, seasonality_mode="multiplicative") model.fit(daily_counts.rename(columns={"date": "ds", "count": "y"})) forecast = model.predict(daily_counts) # If actual is significantly above forecast — anomaly residuals = daily_counts["count"] - forecast["yhat"] if residuals.iloc[-1] > 3 * residuals.std(): return TrendAlert(topic=topic, type="spike", magnitude=residuals.iloc[-1]) return None 

Velocity tracking: the growth rate of a topic. A 50% increase in 2 days means urgent. This method works well for features without strong seasonality. BERTopic is 25% more accurate than LDA for detecting emerging topics, especially when customer terminology changes frequently.

Emerging topics: BERTopic on a rolling window of the last 7 days — detecting topics that never appeared before. Unlike static clustering, BERTopic adapts to changes in customer vocabulary.

Method Task Advantages Limitations
Prophet Anomaly detection in seasonal series Handles seasonality and holidays, robust to missing data Requires 4+ weeks of history
STL decomposition Trend and seasonality extraction Simple, interpretable Not for multiplicative seasonality
CUSUM Fast shift detection Minimal delay Many false positives under high volatility

Why BERTopic beats LDA for emerging topics

BERTopic uses transformer embeddings (e.g., all-MiniLM-L6-v2) and hierarchical clustering, giving 25% more accurate emerging topic detection than LDA. This matters when customers rephrase issues — BERTopic preserves semantic similarity, while LDA is tied to exact terms. In one project, BERTopic identified 12 emerging topics in two weeks; LDA found only 5.

How contextualization improves trend quality

A trend without context is just a number. The system automatically adds:

  • 5–10 sample conversations representing the trend (with confidentiality preserved)
  • Year-over-year comparison with the same period
  • A hypothesized cause: key phrases extracted from dialogues mapped to external events (releases, incidents)

Without contextualization, up to 40% of trends are misinterpreted. Our system reduces that to 5% through automatic annotation. Contextualization is the key ROI factor in AI analytics.

Implementation stages and timelines

Stage Duration Description
Data audit 1–2 weeks Analyze ticket sources (CRM, chats, email), prepare cleaning pipeline
Detector calibration 1–2 weeks Tune Prophet, BERTopic, velocity tracking to your data
Dashboard and alerts 1 week Real-time trend visualization, Slack/email notifications
Contextualization 0.5 week Integrate with product knowledge base and release calendar
Team training 2–3 sessions Interpret trends and make decisions
Support 1 month Adjust thresholds, add new sources

What's included

  1. Data audit: analyze ticket sources (CRM, chats, email), set up cleaning and normalization pipeline.
  2. Detector calibration: select and tune Prophet, BERTopic, velocity tracking parameters to your data.
  3. Dashboard and alerts: real-time trend visualization, configure Slack/email notifications.
  4. Contextualization: integrate with product knowledge base and release calendar.
  5. Team training: 2–3 sessions on interpreting trends and decision-making.
  6. Support: 1 month of post-production support (threshold adjustments, adding new sources).

Results confirmed by experience

We have delivered over 50 projects in AI analytics. Typical impact: reaction time to problems drops from 2 weeks to 1 day, manual analysis budget savings up to 70%. The system pays for itself in 2–3 months. Typical investment: $25,000–$50,000 initial deployment, with ongoing monthly support at $2,000–$5,000. ROI often exceeds 200% in the first year. We guarantee a 2-month ROI or we extend support free of charge.

Get a consultation on implementing a trend detection system in your company. Order a pilot on your data — it takes no more than 2 weeks.