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From Global Trends to Consumer Reality:  Uncovering Hidden Patterns in Skincare Behavior through Data-Driven Segmentation
Anum Ahmed | Msc Data Analytics Dubai, UAE Anum Ahmed | Msc Data Analytics Dubai, UAE
27 July 2026

From Global Trends to Consumer Reality: Uncovering Hidden Patterns in Skincare Behavior through Data-Driven Segmentation

The skincare industry is rapidly evolving, with growing interest in aesthetic procedures alongside strong organic product usage. This study integrates large-scale consumer data with global and geographical trends to examine real consumer behavior. The results show that trends do not directly drive consumer satisfaction, while machine learning reveals distinct behavioral patterns. These findings highlight the need for a deeper, data-driven understanding of modern skincare dynamics.

An Integrated Analysis of Global Trends, Geographical Variation, and Machine Learning-Based Behavioral Segmentation

Executive Summary

The global skincare industry is undergoing a significant transformation, driven by the rising popularity of advanced aesthetic procedures alongside the continued dominance of traditional and organic skincare products. While global trends indicate increasing interest in injectable and aesthetic treatments, it remains unclear how these trends influence actual consumer behavior and product satisfaction.

This study presents a data-driven framework that integrates large-scale consumer review data with global trend data and geographical insights to evaluate the relationship between skincare trends and consumer behavior. Using over 1.3 million product reviews combined with Google Trends data, the analysis examines temporal patterns, regional variations, and behavioral responses within the cosmetics market.

The findings reveal that aesthetic skincare interest has increased consistently over time; however, organic skincare continues to dominate across most countries. Significant geographical variation exists, with only a limited number of markets showing strong aesthetic preference. Importantly, the analysis shows no direct relationship between global trends and user ratings, indicating that consumer satisfaction is not driven solely by trend dynamics.

To further explore underlying patterns, machine learning-based clustering was applied, revealing distinct behavioral segments within the market. The results demonstrate that products exposed to similar trend conditions can exhibit significantly different rating behaviors, highlighting the complexity and heterogeneity of consumer responses.

Overall, the study emphasizes that global trends alone are insufficient to explain consumer behavior. Instead, a multi-level analytical approach combining trend analysis, geographical insights, and behavioral segmentation is required to fully understand the evolving dynamics of the skincare industry. The proposed framework provides a scalable and practical methodology for analyzing similar trend-behavior relationships across different domains.

1. Introduction

The global beauty and personal care industry has experienced a significant transformation in recent years, driven by the increasing popularity of both traditional skincare products and advanced aesthetic procedures. In particular, non-invasive cosmetic treatments such as injectable aesthetics (e.g., Botox) have gained substantial attention worldwide, reflecting a shift in consumer awareness, expectations, and preferences.

At the same time, organic and traditional skincare products continue to play a dominant role in daily consumer routines, supported by growing interest in natural ingredients, sustainability, and long-term skin health. This coexistence of traditional and modern beauty approaches has created a complex landscape where global trends may not necessarily align with actual consumer behavior across different regions.

Understanding how these trends evolve over time and how they vary geographically is critical for businesses, researchers, and policymakers. While global trend indicators (such as search interest) suggest increasing adoption of aesthetic procedures, it remains unclear whether this growth is uniformly reflected across countries or if regional differences significantly influence consumer preferences.

This document explores the relationship between global skincare trends and country-level preferences by integrating time-based trend data and geographical analysis. The aim is to provide a structured, data-driven understanding of how organic and aesthetic skincare interests evolve and how these patterns differ across regions.

2. Problem Statement

The rapid growth of the global beauty industry has been accompanied by a noticeable rise in interest in advanced aesthetic procedures, particularly non-invasive treatments such as injectable skincare (e.g., botox). At the same time, traditional and organic skincare products continue to dominate everyday consumer routines across many regions. While global trend indicators, such as search interest data, suggest increasing attention toward aesthetic procedures, it remains unclear how these trends translate into actual consumer behavior.

Current analytical approaches often rely on either consumer data (e.g., product reviews and ratings) or external trend data (e.g., search trends) in isolation. This separation limits the ability to understand whether global aesthetic trends meaningfully influence consumer perceptions and satisfaction with traditional cosmetic products. Furthermore, most studies assume a direct relationship between rising trends and changes in consumer behavior, without validating whether such relationships exist in real-world data.

Another key challenge lies in the assumption of uniform consumer behavior across markets. Global trends are typically analyzed at an aggregated level, overlooking potential regional differences and the possibility that consumers may respond differently to the same trend conditions. As a result, existing approaches fail to capture the complexity of consumer behavior, particularly in a landscape where traditional and modern skincare approaches coexist.

In addition, there is limited exploration of whether distinct behavioral segments exist within the market. Even under similar global trend conditions, consumers and products may exhibit varying levels of satisfaction, suggesting the presence of underlying factors not captured by trend data alone.

Therefore, the core problem addressed in this study is: to determine whether rising global interest in aesthetic skincare trends is associated with changes in consumer behavior, and to identify whether distinct behavioral segments exist under similar trend conditions.

This problem highlights the need for an integrated, data-driven approach that combines trend data, consumer behavior data, and advanced analytical techniques to provide a more comprehensive understanding of the relationship between global trends and actual market behavior.

3. Existing Approaches and Limitations

Existing research in the cosmetics and skincare domain has primarily focused on analyzing consumer behavior using either transactional data (e.g., product reviews, ratings, and purchase history) or external indicators such as online search trends and social media engagement. Studies using user-generated content, particularly online reviews, have demonstrated their effectiveness in understanding consumer sentiment, product perception, and purchasing behavior. For example, review-based analysis has been widely used to evaluate customer satisfaction and product quality using natural language processing and statistical techniques [1].

In parallel, tools such as Google Trends have been increasingly adopted to capture public interest and emerging patterns in consumer demand. Prior work has shown that search trend data can provide valuable insights into market dynamics and has been applied in domains such as healthcare, finance, and marketing to track user interest over time [2]. However, while such approaches effectively capture macro-level trends, they do not directly reflect actual consumer decisions or satisfaction.

A major limitation of existing approaches is the lack of integration between trend-level data and behavior-level data. Most studies analyze these data sources independently, assuming that an increase in trend popularity directly translates into changes in consumer behavior. This assumption is often not validated empirically. Research in consumer behavior suggests that purchasing decisions are influenced by a wide range of factors, including product attributes, perceived value, and individual preferences, rather than external trends alone [3].

Furthermore, traditional analytical methods frequently assume homogeneous consumer behavior, overlooking the variability across different user groups, products, and markets. In reality, consumers exposed to the same external trends may respond differently depending on contextual and psychological factors. This highlights the need for more granular analysis that can capture heterogeneity within the data.

Another limitation is the underutilization of machine learning techniques for behavioral segmentation. While predictive models have been widely used in recommendation systems and rating prediction tasks, their effectiveness depends heavily on the availability of rich and diverse features. In cases where feature space is limited or weakly informative, predictive models often fail to provide meaningful insights. In contrast, unsupervised learning techniques such as clustering have been shown to be effective in identifying latent patterns and grouping entities based on similarity without requiring strong predictive relationships [4].

Despite these advancements, there remains a gap in applying such techniques to jointly analyze global trends and consumer rating behavior within the cosmetics domain. Existing studies rarely explore whether similar trend conditions can lead to different behavioral outcomes, or whether distinct segments of products or consumers emerge under the same external influences.

The limitations of current approaches can be summarized as:

  • Lack of integration between trend data and consumer behavior data

  • Over-reliance on assumptions of direct trend-behavior relationships

  • Limited consideration of regional and contextual variability

  • Ineffective use of predictive models in low-signal environments

  • Insufficient application of clustering techniques for behavioral segmentation

These limitations motivate the need for a more integrated and exploratory analytical framework that combines trend analysis with behavioral segmentation to better understand consumer dynamics in the evolving skincare market.

4. Proposed Solution: Terno AI

The limitations identified in existing approaches highlight the need for an integrated analytical framework capable of combining multiple data sources and extracting meaningful insights from both trend-level and behavior-level data. To address this, this study proposes a data-driven solution implemented using Terno AI, an agentic data science platform that enables structured data exploration, transformation, and analysis through guided prompts.

4.1 Overview of the Proposed Approach

The proposed solution integrates three key analytical components:

  1. Trend Analysis (Time-Based)
  2. Geographical Analysis (Country-Level Preferences)
  3. Behavioral Analysis (User Ratings and Clustering)

These components are combined into a unified workflow to evaluate the relationship between global skincare trends and consumer behavior.

4.2 Data Integration Framework

The solution begins with the construction of a unified dataset by combining:

  • A large-scale Amazon cosmetics review dataset containing over 1.3 million records, including product ratings, categories, and timestamps

  • Google Trends data, capturing global interest in:

    • Aesthetic skincare (injectable procedures)
    • Organic skincare (traditional products)
  • Geographical trend data, representing country-level preference distributions

To align these datasets, temporal aggregation was applied by mapping trend values to corresponding years in the review dataset. This allowed each product rating to be analyzed within the context of prevailing global trends.

4.3 Analytical Workflow in Terno AI

The implementation in Terno AI followed a structured, prompt-driven workflow:

Step 1: Data Preparation and Cleaning

  • Removal of inconsistencies (e.g., percentage symbols in trend data)

  • Standardization of numerical features

  • Alignment of time-based variables (year-level mapping)

Step 2: Trend Analysis

  • Evaluation of global trends in aesthetic and organic skincare over time

  • Identification of growth patterns and variability using time-series visualization

This step established the macro-level context of increasing aesthetic interest alongside stable or fluctuating organic trends.

Step 3: Geographical Analysis

  • Country-level comparison of organic vs aesthetic preferences

  • Computation of trend gap (aesthetic − organic) to measure preference intensity

  • Identification of:

    • Aesthetic-leaning countries
    • Organic-dominant countries
    • Balanced markets

Advanced visualization techniques, including diverging bar charts and scatter plots, were used to reveal distribution patterns, regional clustering, and outliers.

Step 4: Behavioral Analysis

  • Aggregation of product-level ratings to represent consumer satisfaction

  • Analysis of rating trends over time and across conditions

  • Correlation analysis between ratings and trend variables

This step demonstrated that global trends do not directly translate into changes in user ratings.

Step 5: Machine Learning-Based Segmentation

To further explore hidden patterns, unsupervised machine learning (K-means clustering) was applied to product-level data using:

  • Average rating

  • Trend gap (aesthetic − organic)

This enabled the identification of distinct behavioral segments:

  • High-satisfaction products under high trend exposure

  • Low-satisfaction products under similar conditions

  • Moderately stable products with lower trend influence

This segmentation revealed that products exposed to similar global trends can exhibit significantly different rating behaviors, highlighting the presence of latent factors beyond trend influence.

4.4 Key Advantages of the Proposed Solution

The proposed framework offers several advantages over traditional approaches:

  • Integrated Analysis: Combines trend data, behavioral data, and geographical insights

  • Multi-Level Understanding: Captures global, regional, and product-level patterns

  • Exploratory Machine Learning: Uses clustering to uncover hidden behavioral segments rather than relying on weak predictive models

  • Scalable Workflow: Enables efficient analysis of large datasets through prompt-driven interaction in Terno AI

4.5 Core Contribution

The key contribution of this solution lies in demonstrating that:

  • Global aesthetic trends can be effectively analyzed using integrated datasets

  • Consumer behavior does not necessarily follow trend patterns directly

  • Distinct behavioral segments exist even under similar trend conditions

By leveraging Terno AI, the proposed approach provides a flexible and reproducible framework for analyzing complex relationships between global trends and consumer behavior in the skincare domain.

5. System Architecture

The proposed solution follows a structured data-driven architecture that integrates multiple data sources and analytical components to evaluate the relationship between global skincare trends and consumer behavior. The system is implemented using Terno AI, which enables seamless data processing and analysis through a prompt-driven workflow.

5.1 Overview of the Architecture

The system consists of three main layers:

  1. Data Layer
  2. Processing and Integration Layer
  3. Analysis and Visualization Layer

These layers work together to transform raw data into actionable insights.

5.2 Data Layer

The data layer includes three primary sources:

  • Consumer Behavior Data

    • Amazon cosmetics dataset (~1.3 million records)
    • Features: ProductId, ProductType, Rating, Timestamp
  • Trend Data (Time-Based)

    • Global interest in: Aesthetic skincare (injectables), Organic skincare
  • Geographical Data (Country-Level)

    • Country-wise distribution of organic vs aesthetic preferences

These datasets provide complementary perspectives on consumer behavior and market trends.

5.3 Processing and Integration Layer

In this layer, data from multiple sources is cleaned, transformed, and integrated.

Key operations include:

  • Data Cleaning: removal of inconsistencies (e.g., percentage symbols, formatting issues); conversion of trend values into numerical format

  • Temporal Alignment: mapping trend data to corresponding years in the review dataset; ensuring consistency between behavioral and trend data

  • Feature Engineering: creation of derived variables such as trend gap (aesthetic − organic) and aggregated product-level ratings

  • Data Aggregation: transformation from row-level data to product-level summaries, enabling meaningful behavioral analysis and clustering

This layer ensures that all datasets are aligned and ready for analysis.

5.4 Analysis and Visualization Layer

This layer performs the core analytical tasks of the system:

1. Trend Analysis

  • Time-series evaluation of aesthetic and organic trends

  • Identification of growth patterns and variability

2. Geographical Analysis

  • Country-level comparison of preferences

  • Identification of aesthetic-leaning countries, organic-dominant countries, and balanced markets

  • Visualization using diverging bar charts and scatter plots

3. Behavioral Analysis

  • Evaluation of product-level ratings

  • Correlation analysis between trends and user ratings

4. Machine Learning Module

  • Application of K-means clustering for segmentation

  • Grouping products based on rating and trend exposure

  • Identification of distinct behavioral segments

5.5 Data Flow

The system follows a sequential data flow:

  1. Raw datasets are ingested into the system
  2. Data is cleaned and standardized
  3. Trend data is aligned with behavioral data
  4. Features are engineered and aggregated
  5. Analytical models and visualizations are applied
  6. Insights are generated and interpreted

This pipeline ensures a smooth transition from raw data to structured insights.

5.6 Role of Terno AI

The entire architecture is implemented within Terno AI, which provides:

  • Prompt-driven data exploration

  • Automated data transformations

  • Integrated visualization capabilities

  • Support for large-scale datasets

This significantly reduces the complexity of traditional data analysis workflows and enables rapid iteration across multiple analytical steps.

Figure 1: Proposed Architecture — Terno AI's Data Layer, Processing & Integration Layer, and Analysis & Visualization Layer work together to turn consumer review data, trend data, and geographical data into integrated insights.
Figure 1: Proposed Architecture — Terno AI's Data Layer, Processing & Integration Layer, and Analysis & Visualization Layer work together to turn consumer review data, trend data, and geographical data into integrated insights.

6. Implementation Details

This section describes the practical implementation of the proposed framework, including dataset preparation, integration, analytical steps, and machine learning techniques used to evaluate the relationship between global skincare trends and consumer behavior.

6.1 Datasets Used

The implementation utilizes three primary datasets collected from publicly available sources, providing complementary perspectives on consumer behavior, temporal trends, and geographical variation.

Amazon Cosmetics Review Dataset: This dataset was obtained from the Kaggle repository [5] and contains over 1.3 million product reviews. It includes key attributes such as product identifiers (ProductId), product categories (ProductType), user ratings (Rating), and timestamps (Timestamp). This dataset serves as the primary source for analyzing consumer behavior and product-level satisfaction.

Global Trend Dataset (Time-Based): Trend data was collected from Google Trends, capturing worldwide search interest over time for aesthetic skincare (e.g., injectable procedures) and organic skincare. The dataset provides a normalized index of search popularity, which was used to analyze temporal changes in global skincare trends.

Geographical Dataset (Country-Level Preferences): Country-level preference data was derived from Google Trends, representing the relative distribution across different countries for organic skincare and aesthetic skincare. The data is expressed as percentage values, enabling comparative analysis of regional preferences and identification of dominant skincare trends at the country level.

6.2 Data Preprocessing

Data preprocessing was performed to ensure consistency and usability across all datasets.

Amazon Dataset Processing

  • Conversion of timestamp values into year format using datetime functions

  • Adjustment of year values to align with the analysis period (2020–2024)

  • Removal of invalid or missing entries

Trend Dataset Processing

  • Selection of relevant columns (date, aesthetic, organic)

  • Conversion of percentage values into numerical format

  • Transformation of date values into yearly aggregates

Geographical Dataset Processing

  • Removal of percentage symbols (%)

  • Conversion to numerical values

  • Standardization of column names (organic, aesthetic)

6.3 Data Integration

To enable unified analysis, the trend dataset was aggregated at the yearly level and merged with the Amazon dataset based on the year attribute.

  • Year-wise averages of aesthetic and organic trends were computed

  • These values were mapped to corresponding product-level records

  • Records with missing trend values were removed

This integration allowed each product rating to be analyzed within the context of prevailing global trends.

6.4 Feature Engineering

Additional features were created to enhance analytical capability:

  • Trend Gap (aesthetic − organic): Represents the difference between aesthetic and organic trend values

  • Aggregated Product-Level Ratings: Product-level averages were computed to reduce noise from individual user ratings

These features enabled more meaningful analysis of relationships between trends and consumer behavior.

6.5 Analytical Workflow

The implementation followed a structured analytical workflow:

1. Trend Analysis

  • Time-series evaluation of aesthetic and organic trends

  • Identification of growth patterns and variability over time

2. Geographical Analysis

  • Country-level comparison of organic and aesthetic preferences

  • Calculation of trend gap to measure dominance

  • Identification of organic-dominant countries, aesthetic-leaning countries, and balanced markets

3. Behavioral Analysis

  • Evaluation of product-level ratings

  • Analysis of rating distribution across time and trend conditions

  • Correlation analysis between ratings and trend variables

6.6 Machine Learning Implementation

Regression Analysis

An initial regression approach was applied to predict product ratings using year, aesthetic trend (botox), and organic trend (skincare). However, the model demonstrated extremely low predictive performance, indicating that these features do not sufficiently explain variation in user ratings.

Clustering-Based Segmentation

To address this limitation, an unsupervised machine learning approach was adopted. K-means clustering was applied to product-level data using average rating and trend gap as features. This approach enabled the identification of distinct behavioral segments without relying on predictive relationships.

7. Results and Analysis

This section presents the findings of the proposed framework, combining time-based trend analysis, geographical analysis, and machine learning-based segmentation to evaluate the relationship between global skincare trends and consumer behavior.

7.1 Temporal Trend Analysis

The analysis of global trend data reveals distinct patterns in the evolution of skincare preferences over time.

Figure 2: Global Trend Analysis of Aesthetic and Organic Skincare (2020–2024).
Figure 2: Global Trend Analysis of Aesthetic and Organic Skincare (2020–2024).

The results indicate that aesthetic skincare interest exhibits a consistent upward trend over the analysis period, reflecting increasing global attention toward injectable and advanced cosmetic procedures. In contrast, organic skincare maintains relatively stable behavior, with minor fluctuations across years.

Year Aesthetic (Botox) Organic (Skincare)
2020 51.92 56.50
2021 63.00 52.58
2022 66.17 49.58
2023 68.75 52.58
2024 73.83 51.08

Table 1: Yearly Average Trend Values

This divergence suggests that while modern aesthetic treatments are gaining popularity, traditional skincare practices continue to remain relevant in consumer routines.

7.2 Geographical Distribution of Preferences

To understand regional variation, country-level analysis was conducted using organic and aesthetic preference data.

Country Organic (%) Aesthetic (%) Gap
Belgium 99 1 -98
Indonesia 27 73 +46

Table 2: Outlier Countries Based on Preference Gap

Belgium represents an extreme organic-dominant case, while Indonesia is the only strong aesthetic-dominant outlier. These results highlight significant heterogeneity in global skincare preferences.

Figure 3: Diverging Chart of Country-Level Preference Gap.
Figure 3: Diverging Chart of Country-Level Preference Gap.

The diverging visualization illustrates the dominance of organic skincare across most countries, as evidenced by predominantly negative gap values (organic > aesthetic). Only a limited number of countries show notable inclination toward aesthetic preferences.

Figure 4: Comparison of Organic and Aesthetic Skincare Preferences in Top Aesthetic-Focused Countries.
Figure 4: Comparison of Organic and Aesthetic Skincare Preferences in Top Aesthetic-Focused Countries.

The comparison highlights that most top aesthetic-focused countries still exhibit higher organic skincare preference than aesthetic interest. Indonesia stands out as the only country with a strong aesthetic dominance, while other countries such as Finland and Greece remain relatively balanced. This indicates that even in markets with higher aesthetic interest, organic skincare continues to play a significant role.

7.3 Country-Level Distribution Analysis

A scatter-based representation was used to analyze the distribution of countries across preference dimensions.

Figure 5: Scatter Plot of Organic vs Aesthetic Preferences (Country-Level).
Figure 5: Scatter Plot of Organic vs Aesthetic Preferences (Country-Level).

The scatter plot provides a comprehensive view of global distribution:

  • The majority of countries lie below the diagonal line (organic = aesthetic), indicating stronger organic preference

  • Only a small number of countries appear above the diagonal, confirming limited aesthetic dominance

  • Regions such as Oceania (e.g., Australia, New Zealand) show strong organic clustering

  • Asia exhibits higher variability, including the only aesthetic-dominant case (Indonesia)

This visualization confirms that global trends do not translate uniformly across regions and that consumer preferences are highly context dependent.

7.4 Machine Learning-Based Segmentation

Initial correlation and regression analysis indicated no significant relationship between global trends and user ratings; therefore, clustering was applied to explore hidden behavioral patterns. Given the weak predictive relationship, an unsupervised learning approach was applied to uncover hidden patterns.

Figure 6: Cluster Distribution (Rating vs Trend Gap).
Figure 6: Cluster Distribution (Rating vs Trend Gap).

K-means clustering was performed on product-level data using average rating and trend gap (aesthetic − organic).

Cluster Avg Rating Avg Trend Gap Count
0 4.40 18.43 12,850
1 3.42 17.37 4,883
2 4.23 14.33 6,105

Table 3: Cluster Summary

Cluster Interpretation

  • Cluster 0 (High Satisfaction Group): Products with high ratings and strong exposure to global trends

  • Cluster 1 (Low Satisfaction Group): Products with significantly lower ratings despite similar trend conditions

  • Cluster 2 (Moderate Group): Products with relatively stable ratings and lower trend influence

Key Insight from Clustering

The clustering results reveal that products exposed to similar global trend conditions can exhibit significantly different rating behaviors. This confirms the presence of latent behavioral segments, indicating that consumer satisfaction is influenced by factors beyond global trends.

7.5 Summary of Findings

The combined analysis leads to several key observations:

  • Aesthetic skincare trends are increasing globally over time, indicating a growing interest in advanced cosmetic procedures.

  • Organic skincare remains dominant across most countries, suggesting continued reliance on traditional skincare practices.

  • Significant geographical variation exists in consumer preferences, highlighting the influence of regional and cultural factors.

  • Distinct behavioral segments emerge under similar trend conditions, indicating that consumer responses are not uniform.

These findings demonstrate the complexity of consumer behavior in the skincare domain and emphasize that global trends do not directly translate into consistent behavioral outcomes, reinforcing the need for integrated and multi-level analytical approaches.

8. Conclusion

This study proposed a data-driven framework to analyze the relationship between global skincare trends and consumer behavior by integrating large-scale review data, trend data, and geographical insights. The analysis demonstrated that while interest in aesthetic skincare is increasing globally, organic skincare continues to dominate across most regions, indicating coexistence rather than substitution.

The results further showed that global trends do not directly influence consumer satisfaction, as reflected by the lack of strong correlation between trend variables and product ratings. However, clustering analysis revealed the presence of distinct behavioral segments, indicating that similar trend conditions can lead to different consumer responses. This highlights the importance of considering underlying behavioral patterns rather than relying solely on trend indicators.

From a methodological perspective, the study demonstrates the effectiveness of combining trend analysis, geographical analysis, and unsupervised machine learning to capture multi-level insights. The use of Terno AI enabled efficient data exploration and integration, supporting a structured and scalable analytical workflow.

9. Future Work

Future research can extend this framework in several directions:

  • Incorporating additional features such as product price, brand, and user demographics to improve behavioral modeling

  • Applying advanced machine learning techniques, including deep learning and recommendation systems

  • Expanding geographical analysis using more granular regional or city-level data

  • Extending the analysis to other domains such as healthcare, fashion, or consumer electronics

  • Investigating causal relationships between trends and purchasing behavior using longitudinal data

References

  1. G. P. Zhang, "Neural networks for classification: A survey," IEEE Transactions on Systems, Man, and Cybernetics, vol. 30, no. 4, pp. 451–462, 2000.
  2. B. Jun, "A study on the use of Google Trends for forecasting," Technological Forecasting and Social Change, vol. 109, pp. 1–9, 2016.
  3. L. Schiffman and J. Wisenblit, Consumer Behavior, 12th ed. Pearson, 2019.
  4. Jain, "Data clustering: 50 years beyond K-means," Pattern Recognition Letters, vol. 31, no. 8, pp. 651–666, 2010.
  5. Kaggle, "Amazon Beauty Product Review Dataset," Available: https://www.kaggle.com/
  6. Google Trends, "Google Trends: Explore search interest over time," Available: https://trends.google.com/
  7. Institute for Social and Policy Research (ISAP), "Global Skincare Preference Dataset," Available: [Dataset Source]
  8. Terno AI (Chat # 1): https://cosmetic.app.terno.ai/chat/5e7ae01d-be6c-4816-bb0b-d2237c1bf9d0
  9. Terno AI (Chat # 2): https://cosmetic.app.terno.ai/chat/a782c455-7cb6-4046-b50e-83174c2e0460

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