• Services
    LLM
    AI & ML
    Digital Healthcare
    Data Science
    DevOps
  • Products
    Jackalope
    EyeAI
  • Industries
    Healthcare
    Agriculture
    EdTech / LMS
    Retail / E-commerce
    Manufacturing
  • Resources
    Blog
    Case Studies
    Expert Guides
  • Company
    About us
    Careers
  • Contact us
logo
Services
LLMAI & MLDigital HealthcareData ScienceDevOps
Industries
HealthcareAgricultureEdTech / LMSRetail / E-commerceManufacturing
Case StudiesAbout UsBlogCareers
Our contacts
+380(66)54-32-579
sales@sciforce.tech

Get monthly digest of innovations

This site is protected by reCAPTCHA and the Google Privacy Policy and Terms of Service apply.
Social Media:
Privacy Policy © 2026 Sciforce
5.0
Ticket Sales Prediction cover

AI Ticket Sales Prediction for Event Success Forecasting

Published: January 22, 2025
# Entertainment
# Big Data
# Data Science
# NLP
In this case study, we developed a sophisticated ticket sales prediction system designed to evaluate the potential success of events using advanced data analytics. The system generates insights based on historical data, audience sentiment, and economic factors, providing actionable outputs.

Challenge

We were commissioned to create an AI in entertainment analytics system focused on event performance prediction using machine learning and sentiment data, delivering several analytical outputs:

Use Case Ready For Generative AI

Find out more with SciForce free checklist

Likelihood of an event market success presented as a percentage using predictive modeling for event success, when comparing the following elements to historical data points::

  • Type of event;
  • Participants of the event (if it includes participants of past events that won awards);
  • Similar events that won awards;
  • The venue of the event;
  • The opening date of the event;
  • The number of seats in the venue.

Social media analytics for events, including followers broken down by channel and categories:

  • Age;
  • Geographic area;
  • Gender;
  • Event name;
  • How many comments they left in total broken down by channel.

Audience segmentation by sentiment, supporting audience segmentation and sentiment modeling for ticket sales forecasting:*

  • Audience sentiment prediction as positive or negative based on comments, enabling audience sentiment analysis for predicting event demand;
  • Finding out if the person who left the comment on the event or participants attended the event (people who attended an event mention that they have bought a ticket).

Reviews published in social media by writers that work in newspapers:

  • Positive or negative
  • Comparing histories of running time for events that had positive reviews versus those that had negative reviews.

Channel, categories, and sentiment break down of social media followers for each type of event from both sides of participant and organizer.

Analysis of the geographic data to find out how many participants traveled to the event and from what region.

Analysis of economic data that correlates with the willingness of venue goers to spend money to attend an event, supporting ticket price optimization

Real-time event data analytics based on social comments, sentiment, and tone for Analysis of event visitors based on social comments, sentiment, and tone for audience behavior prediction.

Solution

To fulfill the task, we developed a system based on machine learning for ticket sales, delivering predictive analytics for ticket sales and event planning with explainable AI-driven outputs.

The model of choice for the event performance prediction model, a boosted regression trees ensemble, is a supervised ensemble model used for regression tasks. Regression trees and random forests provide an easy way of explaining each prediction. In this way, we can trace the decision and find the most critical inputs and their importance scores for each case. Another output of the model, together with predictive analytics pipelines, is a list of contributions for each input.

Development Journey

The development of the product was a multi-stage process that combined several technologies for different subtasks within an AI-powered event planning pipeline:

For such subtasks as NLP for audience engagement, including sentiment analysis, text categorization, entities detection, and adding news from Discovery News Collection, we used the following tools:

  • random forest regressor, lasso regression, elastic-net regression from scikit-learn python library;
  • boosted regression trees from XGBoost library;
  • sentiment analysis, text categorization, entities detection from Watson NLU;
  • getting news from Discovery News Collection of Watson Discovery Service;
  • scrapy for scraping data from different sources;
  • PostgreSQL data storage
  • AWS cloud analytics;
  • Nominatim as a geocoding service.

Impact

Below we show an example of data-driven event forecasting enabled by AI-powered event analytics combining historical, social, and economic data, where the orange line represents the system prediction and the blue line shows actual numbers. The broader landscape of predictive modeling approaches across industries is covered in our predictive analytics article.

01_Ticket.jpg

02_Ticket.jpg

03_Ticket.jpg

04_Ticket.jpg

RELATED CASE STUDIES

View all Case Studies
Computable Phenotyping Using OMOP And Human-Governed LLM Assistance

Our client was a U.S.-based, multi-institutional healthcare research initiative developing an AI-ready clinical data ecosystem for critical-care research. The initiative brought together several institutional data sources with differences in clinical workflows, source systems, coding practices, data availability, and OMOP ETL implementations. The client needed a systematic way to translate complex clinical research questions into reproducible computable phenotypes that could support cohort discovery, population characterization, outcome definition, and downstream analytical and machine-learning workflows. The project focused on structured electronic health record data represented primarily through the OMOP Condition, Procedure, Measurement, Observation, Device, Drug, Specimen and Visit domains. To preserve confidentiality, the organization and individual clinical use cases are not disclosed.

# Healthcare
# Data Science
# LLM
AI-Driven Roof Modeling From Drone Imagery for for Insurance Company coverAI-Driven Roof Modeling From Drone Imagery for for Insurance Company

Our client is a U.S.-based startup specializing in automated roof measurement for the insurance industry. Their core business involves providing insurers with precise roof dimensions, structural layouts, and damage assessments based on drone imagery. To improve accuracy and reduce manual effort, they needed a custom software solution that could automatically reconstruct roofs in 3D, extract relevant measurements, and generate clean 2D plans suitable for underwriting and claims.

# PropTech
# AI / ML
# Big Data
# Computer Vision
End-to-End ETL on Snowflake cover smallFrom Raw Claims and Clinical Data to PCORnet CDM: End-to-End ETL on Snowflake

Our client, a U.S. health insurer collaborating with multiple hospital systems, aimed to aggregate and harmonize anonymized claims and clinical data in the PCORnet Common Data Model (CDM) to support large-scale outcomes research and operational analytics. The incoming medical and billing feeds came from heterogeneous hospital and payer systems with inconsistent schemas, variable data quality, and no unified governance. The client asked SciForce to design and implement a sustainable, cloud-native ETL/ELT pipeline on Snowflake that would: 1) Continuously integrate raw source feeds into a centralized Snowflake data platform; 2) Transform them into a PCORnet-conformant CDM with strong data quality guarantees; 3) Enable near real-time analytics for patient demand forecasting, capacity planning, and revenue cycle optimization.

# Healthcare
# AI / ML
# Big Data
# Data Science
Enabling Continuous DeploymentEnabling Continuous Deployment with Amazon Elastic Container Service and Infrastructure as Code

The client is a U.S.–based company developing a computer-vision platform for sports medicine. Its goal is to help professional teams and medical staff prevent injuries by analyzing basketball footage, detecting abnormal movements, and flagging potential risks for review. The project required building a DevOps infrastructure that would let the client’s product run reliably in the cloud and evolve without deployment bottlenecks. This meant designing a secure AWS infrastructure with isolated environments for development and production, automating delivery of containerized applications through CI/CD pipelines, and managing all resources as code for consistency and repeatability. By focusing on cloud-native services, scalability, and automation, the platform established an AWS DevOps setup for scalable AI or computer vision platforms that could grow and adapt reliably.

# AI / ML
# Big Data
# Computer Vision
# DevOps