Pideya Learning Academy

Automation and Robotics in Construction Engineering

Upcoming Schedules

  • Schedule

Date Venue Duration Fee (USD)
06 Jan - 10 Jan 2025 Live Online 5 Day 3250
17 Mar - 21 Mar 2025 Live Online 5 Day 3250
05 May - 09 May 2025 Live Online 5 Day 3250
16 Jun - 20 Jun 2025 Live Online 5 Day 3250
14 Jul - 18 Jul 2025 Live Online 5 Day 3250
25 Aug - 29 Aug 2025 Live Online 5 Day 3250
10 Nov - 14 Nov 2025 Live Online 5 Day 3250
15 Dec - 19 Dec 2025 Live Online 5 Day 3250

Course Overview

In today’s fast-paced and increasingly urbanized world, the construction sector is under immense pressure to deliver projects faster, safer, and more sustainably. As global urban populations are expected to surge by over 2.5 billion people by 2050 (UN DESA), traditional construction methods can no longer keep pace with the demand for high-quality infrastructure. To address these challenges, the construction industry is turning to automation and robotics—a shift that is redefining engineering workflows and project lifecycles from the ground up.
The Automation and Robotics in Construction Engineering training by Pideya Learning Academy is tailored to empower engineers, project managers, and technology leaders with the strategic insights, technical knowledge, and forward-thinking mindset required to lead this transformation. The course delivers an in-depth look into how robotics and automation technologies are streamlining processes such as site surveying, structural assembly, inspection, and even workforce management across global construction projects.
According to McKinsey & Company, the construction sector has seen only a 1% increase in productivity over the last two decades—significantly lower than other major industries. However, automation is poised to close this gap. Robotic bricklaying systems can increase output by up to 400%, and 3D printing technologies have been shown to reduce material waste by up to 60%. Drones are improving site safety and mapping accuracy, while autonomous machinery is reducing reliance on manual labor and minimizing safety risks. AI-enhanced scheduling tools and sensor-based predictive maintenance are also optimizing project timelines, cutting delays, and driving efficiency.
To address the evolving needs of the industry, this training offers:
Comprehensive exploration of robotic arms, drones, autonomous construction vehicles, and 3D printing technologies used in modern infrastructure development.
Detailed analysis of automation systems for high-impact construction tasks such as concrete pouring, rebar tying, welding, and structural inspection.
Guidance on integrating robotic solutions into existing construction workflows with emphasis on safety, compatibility, and compliance with industry standards.
Insights into the use of AI, machine learning, and IoT for real-time data analysis, predictive decision-making, and risk mitigation in construction environments.
Case studies and use cases from global construction leaders demonstrating successful implementation of automation and robotics strategies.
Examination of global regulatory frameworks and ethical considerations surrounding the adoption of robotics in construction operations.
Strategies to align automation initiatives with sustainability goals and digital transformation roadmaps.
Through this rich blend of technical knowledge and strategic foresight, participants will develop the capability to evaluate and implement cutting-edge tools that drive measurable improvements in productivity, safety, and project outcomes. The course will also prepare learners to anticipate technological disruptions and respond with agility in a sector that is becoming increasingly digital and data-driven.
Participants will emerge with the confidence to lead the integration of robotics and AI into their project planning and execution frameworks. Whether working on infrastructure megaprojects, residential developments, or smart city initiatives, learners will gain a global perspective on the future of construction and the role they can play in shaping it.
By the end of the Pideya Learning Academy program, attendees will be equipped to contribute meaningfully to their organization’s automation strategy and position themselves as forward-thinking leaders in construction engineering. This training is not only a knowledge upgrade—it is a catalyst for innovation in an industry undergoing profound transformation.

Course Objectives

After completing this Pideya Learning Academy training, the participants will learn to:
Understand the foundational principles and classifications of robotics in the construction domain.
Analyze the role of automation in structural fabrication, assembly, inspection, and safety enhancement.
Evaluate current trends and emerging technologies impacting construction automation.
Develop strategies for deploying AI-integrated robotic systems in construction workflows.
Interpret regulatory, ethical, and compliance aspects associated with robotics in construction.
Recommend data-driven automation strategies to improve project efficiency, quality, and sustainability.

Personal Benefits

Improved understanding of robotics applications in construction engineering.
Sharpened decision-making skills through AI-enabled analysis and modeling tools.
Increased career opportunities in automated construction management and digital transformation.
Certification from Pideya Learning Academy enhancing professional credibility.
Broader global perspective on technology-driven construction methodologies.

Organisational Benefits

Accelerated project timelines through exposure to advanced automation strategies.
Reduced costs by minimizing errors, labor shortages, and material waste.
Enhanced compliance with emerging construction automation regulations and safety standards.
Strengthened ability to lead industry innovations and boost brand reputation.
Improved cross-functional collaboration between project management, design, and engineering units.

Who Should Attend

Civil and Structural Engineers
Construction Project Managers
Engineering Consultants
Automation and Robotics Specialists
Urban Planners and Infrastructure Developers
Innovation Officers and Technology Strategists
Professionals in Smart City and Infrastructure Projects
Training

Course Outline

Module 1: Introduction to Construction Automation and Robotics
Evolution of robotics in construction Core principles of construction automation Classification of robotic systems Construction industry automation landscape Interdisciplinary scope and challenges Key automation benchmarks in civil engineering
Module 2: Robotic Systems in Site Preparation and Earthworks
Autonomous excavation and grading technologies Robotics in soil analysis and stabilization GPS and sensor integration for precision control Drone applications for topographical surveys Obstacle detection and avoidance systems Environmental monitoring and site analytics
Module 3: Automation in Structural Fabrication
Robotic arms for bricklaying and block stacking Automated rebar tying and mesh welding Robotic 3D concrete printing technologies Prefabrication automation in modular construction Steel beam assembly and precision welding Material handling and onsite delivery automation
Module 4: Smart Robotics in Finishing and Interior Work
Automated tiling and flooring systems Wall rendering and painting robots Robotic systems in HVAC and MEP installations AI-powered finishing quality inspection Robotic assembly of prefabricated furniture Adaptive systems for interior customization
Module 5: AI Integration and Predictive Maintenance
AI for predictive modeling in robotic maintenance IoT sensors and real-time diagnostics Digital twin technologies in construction Remote operations and monitoring platforms Adaptive machine learning for asset performance Failure prediction and scheduling optimization
Module 6: Safety and Compliance in Automated Construction
Robotics and construction site safety standards Risk identification and autonomous alert systems Integration with Building Information Modelling (BIM) Compliance frameworks and audit readiness Human-machine collaboration protocols Ethics in automation and workforce transformation
Module 7: Case Studies in Robotics-Enabled Projects
Success stories in robotic concrete printing Use of exoskeletons in structural work Large-scale automated highway construction Data-driven insights from smart infrastructure projects Cost-benefit analyses of automation adoption Lessons learned from implementation failures
Module 8: Future Trends and Strategic Deployment
Emerging trends in swarm robotics Robotics in underwater and offshore construction Investment planning for automation initiatives Framework for automation maturity assessment Workforce training and change management Global regulatory outlook and standardization

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