About the Course
Organizations in structural engineering want results they can defend, not just outputs from a software run. In ETABS work, that means you need to demonstrate reliable grid setup, section assignment, load path definition, mass source specification, and result verification, all while aligning the model with recognized design procedures such as ACI 318, Eurocode 2, and response spectrum analysis. The pressure is practical: review cycles are tighter, teams work across shared digital models, and small modeling errors can cascade into incorrect member forces, unconservative drift checks, or rework at the detailing stage.
This course turns scattered ETABS knowledge into a structured engineering workflow. You will practice building frames, slabs, and shear wall models; defining dead, live, wind, and seismic loads; assigning diaphragm and boundary conditions; running static and modal analysis; reading story drift, modal mass participation, and member force results; and organizing a calculation package that supports design review. What you will learn: how to create a trustworthy ETABS model, how to interpret key analysis outputs, and how to prepare a clear structural modeling record that can be checked by another engineer. You will practice the full workflow hands-on in ETABS, while concepts such as advanced nonlinear interpretation and detailed code optimization will be introduced at operational level so the course remains credible within 10 days.
ETABS projects are often constrained by incomplete architectural information, changing client layouts, competing deadlines, and the need to coordinate with drafting, design, and review teams. This training is built for those conditions. It gives you a repeatable method for checking assumptions, organizing model data, and documenting analysis decisions so that your ETABS output remains traceable even when the design brief evolves during delivery.
Target Audience
This ETABS for Structural Modeling and Analysis Training is intended for professionals who already work with building structures and need a stronger, more disciplined modeling workflow. It is especially relevant when you must produce reliable analysis results, defend modeling assumptions, and coordinate ETABS outputs with design and documentation teams.
- Structural Design Engineer responsible for building and checking ETABS models
- Structural Analyst validating load paths, member forces, and drift results
- BIM Coordinator managing model coordination and data consistency
- Project Engineer tracking design revisions across structural deliverables
- Senior Structural Engineer reviewing assumptions and approval-ready calculations
- Reinforced Concrete Engineer modeling frames, slabs, and shear walls
- Steel Design Engineer interpreting member forces for code-based checks
- Technical Reviewer auditing analysis inputs and result reliability
- Construction Engineer coordinating model outputs with buildable details
- Design Office Lead reporting ETABS findings to project stakeholders
Course Objectives
This course equips you to plan, execute, and measure ETABS modeling and analysis initiatives that improve model reliability, support code compliance, and strengthen design decisions.
- Assess an existing ETABS model using grid, section, and load input checks against engineering drawings.
- Apply ETABS load definition and combination workflows to gravity, wind, and seismic cases.
- Design a 3D structural model with story data, diaphragms, supports, and member properties.
- Build a calculation-ready ETABS result summary using modal mass participation and story drift outputs.
- Calculate key analysis checks including base shear, modal periods, and drift ratios from ETABS.
- Evaluate model behavior against ACI 318, Eurocode 2, and response spectrum requirements.
- Navigate model review, coordination, and revision control requirements in shared structural workflows.
- Synthesize ETABS findings into a structured design review report and action list.
Requirements & Prerequisites
Prerequisites required: working knowledge of structural analysis concepts, reinforced concrete or steel building behavior, and basic engineering mathematics. You should be comfortable reading structural drawings and understanding loads, load combinations, and member actions; prior ETABS experience is helpful but not mandatory. No programming is required. Participants should bring a laptop with ETABS installed for hands-on labs, and a calculator is recommended for manual verification exercises. Advanced topics such as modal analysis, seismic response spectra, and drift interpretation will be taught at operational application level, not at finite-element engineering depth.
Professional and Organizational Impact
When you lead ETABS modeling with credible data and practical review habits, you become a trusted driver of analysis quality and design confidence.
- Build stronger confidence in ETABS model setup and verification.
- Gain skill in interpreting modal and force results correctly.
- Strengthen your ability to check drift and stability outputs.
- Enhance coordination with drafters, reviewers, and design leads.
- Develop defensible calculation notes for structural review packages.
- Position yourself as a reliable model checker and analyst.
- Expand your usefulness across RC, steel, and seismic projects.
Organizations that embed ETABS modeling discipline into structural design workflows reduce rework, mitigate analysis risk, and build lasting project credibility.
- Reduce redesign cycles caused by incorrect modeling assumptions.
- Improve analysis reliability for reinforced concrete and steel projects.
- Lower review time through clearer calculation packages and outputs.
- Mitigate compliance risk from inconsistent load combinations.
- Support faster coordination between analysis, detailing, and approval teams.
- Strengthen client confidence in structural design decisions.
- Improve project delivery efficiency under tight design schedules.
Training Methodology
This is a practical, outcome-driven course designed to turn ETABS modeling aspiration into measurable action and credible reporting.
Methodology includes:
- Hands-on calculation exercise using ETABS story drift and modal mass participation outputs.
- Scenario simulation of a design-change revision under live project constraints.
- Model diagnostic using a structural checklist aligned with ACI 318 and Eurocode 2 checks.
- Stakeholder mapping exercise for designer, checker, detailer, and client review approval chains.
- Case study analysis from office towers, hospitals, industrial buildings, and mid-rise residential frames.
- Group workshop producing a load combination sheet and model verification log.
- Reflection exercise comparing your current ETABS workflow with benchmark review practices.
Upcoming Sessions
Next available dates worldwide
Certification
Recognized credentials that advance your career
Participants who complete the ETABS for Structural Modeling and Analysis Training Program earn a Trainingcred Certificate of Achievement, demonstrating professional competence and alignment with global standards in learning and development.
NITA Accredited
Accredited by the National Industrial Training Authority, ensuring programs meet nationally recognized standards of quality and relevance.
CPD Certified
Recognized by the CPD Certification Service, ensuring every program meets internationally benchmarked standards of professional excellence.
Why this course earns its place on your CV
Accredited training, practitioner trainers, and peers on the same career track — the three things real expertise is built on.
Skills Relevance
- Master ETABS to boost your structural engineering design proficiency.
- Learn cutting-edge techniques for modern building design and analysis.
- Stay competitive with the latest industry-standard software skills.
Expert Delivery
- Courses led by seasoned structural engineers with real-world experience.
- Benefit from personalized feedback on your ETABS projects from experts.
- Gain insights from trainers who've contributed to major construction projects.
Career Advancement
- Demonstrate your dedication to continuous growth with a Certificate of Completion from Trainingcred's ETABS Training Program.
- Position yourself for promotions and leadership roles in structural design.
- Unlock new job opportunities in engineering with advanced ETABS skills.
Industry Tools and Platforms Featured in this Training
The platforms and vendors Hong Kong teams are running today — taught against real configurations, not generic vendor demos.
-
ETABS Computers and Structures, Inc. (CSI)The industry standard in Hong Kong for high-rise building analysis and a pre-accepted program by the Buildings Department (BD) under reference S1207/S1210.
-
SAP2000 Computers and Structures, Inc. (CSI)Applied for non-building structures, bridges, and specialized steelwork analysis that falls outside the standard building-centric ETABS workflow.
-
Revit AutodeskThe primary BIM authoring tool used in Hong Kong; engineers use CSIxRevit to synchronize ETABS analytical models with BIM deliverables.
-
Oasys GSA OasysFrequently used by major consultancies like Arup for advanced structural analysis and interoperability with internal design scripts.
-
Tekla Structures TrimbleThe dominant tool for structural steel detailing and fabrication modeling in large-scale Hong Kong infrastructure and commercial projects.
Real-World Case Studies from Hong Kong
Real organisations putting these methods into practice — what they did, what changed, and the measurable outcome. No hypothetical scenarios.
-
International Commerce Centre (ICC) Structural Analysis 2010Arup
Arup engineers utilized ETABS for the comprehensive structural modeling and analysis of the 484-meter tall ICC tower. The software was critical for evaluating the building's response to extreme wind loads and managing complex axial shortening effects in the concrete core and mega-columns.
The project successfully optimized the outrigger system and core wall thickness, ensuring the structural integrity of Hong Kong's tallest building while meeting stringent Buildings Department safety standards.
-
One Island East Lateral Load Optimization 2008Arup
ETABS was employed to model the 70-story One Island East office tower, specifically to analyze the lateral stability provided by its high-strength concrete core. The analysis supported the use of Grade 100 concrete, a first for a private development in Hong Kong at that scale.
The use of ETABS allowed for a column-free corner design, maximizing floor area and reducing overall material consumption by validating the efficiency of the core-and-outrigger system.
