Explore Our Expertly Crafted Projects
We leveraged machine learning algorithms such as Linear Regression, ARIMA (time-series forecasting), and Random Forest Regression to analyze complex financial data. The model is built using historical stock prices and trading volumes, identifying patterns that drive future price movements.
The analysis of Microsoft’s stock performance reveals steady growth with fluctuations, providing valuable insights for future trend analysis. Technical indicators such as moving averages, RSI, Bollinger Bands, and MACD help identify trends, volatility levels, and potential buy/sell opportunities. Trading volume analysis shows a strong correlation between spikes in volume and price movements, emphasizing its role in market sentiment.
The post-pandemic surge in trading activity highlights the impact of external events on stock behavior. With a CAGR of 34.01% and a Sharpe Ratio of 0.075, Microsoft demonstrates strong long-term growth with moderate risk. Additionally, Random Forest outperforms Linear Regression in predictive accuracy, making it the preferred model for forecasting stock movements. This project leverages machine learning and financial analytics to provide data-driven insights, helping investors optimize strategies, manage risks, and enhance decision-making.
This project explores global CO2 emissions per capita, focusing on regional trends, economic influences, and future forecasts. By analyzing historical data, we aim to provide actionable insights into the factors driving emissions and their implications for climate change and sustainability.
The Average Global CO2 Emissions Per Capita (1990-2020) graph highlights key trends in global emissions over the years. Emissions declined in the 1990s, followed by a sharp rise from 2000 to 2008 due to industrial growth. A significant drop in 2009 aligns with the global financial crisis, while 2010-2014 saw relative stability.
From 2015 onwards, emissions steadily declined, with a sharp drop in 2020, likely due to the COVID-19 pandemic and a global shift towards cleaner energy. These trends reflect the impact of economic events, policy changes, and sustainability efforts on global CO2 emissions.
This project develops a classification model to predict credit card user churn. It involved data cleaning, exploratory analysis, feature engineering, and model building using Logistic Regression, Decision Tree, SVM, and Random Forest. After evaluating model performance, actionable business recommendations were provided to help retain customers and reduce churn rates.
The predictive model identifies key factors driving credit card churn, including low transaction count, low revolving balance, limited banking relationships, inactivity, and unresolved customer issues. Customers with fewer transactions and lower balances are more likely to leave, so offering cashback, discounts, and promotions can boost engagement. Attrition is highest among those using only one or two bank products, highlighting the need for better service transparency and customer support.
Female customers, who make higher transactions but have lower credit limits, can be retained by increasing their credit limits. Inactivity beyond 2-4 months significantly contributes to churn, making automated engagement messages essential. Additionally, frequent customer interactions without resolution indicate dissatisfaction, necessitating a robust feedback system to enhance customer support. Implementing these strategies will help banks reduce churn, improve retention, and boost customer engagement effectively.
This project utilizes machine learning to predict water quality, ensuring safe drinking water through data-driven analysis. Using a comprehensive dataset from Kaggle, we explore key factors influencing water potability and develop a predictive model to classify samples as safe or unsafe for consumption. The workflow includes exploratory data analysis, preprocessing, model training, evaluation, and tuning using Logistic Regression, Decision Tree, SVM, Random Forest, and Naive Bayes. By leveraging machine learning, this study contributes to environmental safety and public health, offering a scalable solution for monitoring and assessing water quality.
The SVM model demonstrates strong performance in identifying unfit water samples, correctly classifying 408 cases. However, 192 unfit samples were misclassified as potable, posing a potential health risk, while 139 potable samples were incorrectly labeled as unfit, leading to unnecessary water rejection. These misclassifications highlight the model's predictive tendencies and areas of imbalance in classification.
This project aims to help DWP Hotels Group mitigate revenue loss caused by booking cancellations by developing a predictive model to estimate the likelihood of cancellations. The process involves exploratory data analysis, preprocessing, model training, evaluation, and tuning using classifiers such as Decision Tree, Random Forest, Naïve Bayes, XGBoost, and AdaBoost. By leveraging data science, this solution enables the hotel to proactively manage inventory, optimize occupancy, and minimize revenue loss.
The tuned model achieved an accuracy of 98% on training data and 96.8% on test data, demonstrating reliable predictive performance. The Random Forest model identified Lead Time, Number of Special Requests, Market Segment Type (Online), Average Price per Room, and Arrival Month as the most significant factors influencing cancellations, while other variables had minimal impact.
At Quantum Bridge Global, we are committed to delivering innovative, data-driven, and technology-powered solutions that empower businesses, governments, and organizations to optimize operations, solve environmental challenges, and drive sustainable growth. Our expertise spans across data science, IT services, and environmental consulting, ensuring that our clients receive tailored solutions to meet their unique needs.