Designing:
· To design a Tuned Mass Damper (TMD) system specifically tailored to the natural frequency and dynamic behaviour of the borewell drilling machine.
· To create detailed CAD models and engineering drawings of the TMD and associated components such as vibration damping sleeves and viscoelastic damping layers.
· To select appropriate materials and geometries for the TMD and damping elements to ensure durability, effectiveness, and ease of fabrication.
· To design vibration damping sleeves that can be fitted onto rotating shafts to reduce transmission of vibrations without interfering with mechanical operation.
· To incorporate helical grooves in shaft design to optimize friction characteristics and contribute to vibration damping.
· To perform finite element analysis (FEA) and modal analysis simulations on the designed components to validate their performance in reducing vibrations.
· To develop a comprehensive assembly design that integrates all vibration control components cohesively within the borewell drilling machine structure.
Enhancement:
· To improve the existing borewell drilling machine design by incorporating vibration reduction components such as Tuned Mass Dampers (TMDs) and damping sleeves.
· To optimize the material properties and thickness of viscoelastic damping layers to maximize energy dissipation.
· To refine the dimensions and placement of vibration damping sleeves for more effective vibration isolation on rotating shafts.
· To enhance the shaft design by adding or modifying helical grooves to reduce friction-induced vibrations.
· To upgrade existing structural supports and mounts with improved damping materials and reinforcement to reduce vibration transmission.
· To validate enhancements through simulation and experimental testing and quantify the improvements in vibration reduction compared to the original design.
Integrate Smart AI-Based Thermal Control:
To develop and implement AI algorithms that continuously monitor vibration data from sensors installed on the borewell drilling machine.
To enable real-time analysis of vibration patterns using machine learning models to identify abnormal vibrations and predict potential failures.
To design an AI-driven control system that dynamically adjusts the parameters of the Tuned Mass Damper (TMD) and damping devices for optimal vibration reduction.
To integrate IoT connectivity for remote monitoring and data logging of machine vibration and health status.
To create predictive maintenance schedules using AI to minimize downtime and extend the lifespan of the drilling machine components.
To develop a user-friendly dashboard or interface that provides actionable insights and alerts based on AI analysis for operators and maintenance teams.
To validate the effectiveness of AI integration through simulation and field testing, comparing vibration levels and operational efficiency before and after implementation.