Advanced Materials and Composites Engineering Corporate Training
Build the materials engineering skills your engineering teams need to select, design, and manufacture advanced composites with confidence.
Edstellar's instructor-led Advanced Materials & Composites Engineering corporate training helps your teams learn, develop, and build real capability in modern materials science and composites manufacturing. As a corporate training company with 5+ years of experience, we help engineering teams select the right materials, design for performance, and move composite programs from concept to reliable production.
Instructor-led group trainingVirtual / on-site / off-site10 languagesDelivered inEnglish, Spanish, Mandarin, German, Arabic, Portuguese, Hindi, French, Japanese, Italian100+ countriesWe have delivered inUnited States, United Kingdom, India, Canada, Germany, France, Netherlands, UAE, Saudi Arabia, Singapore, Australia, Japan, Brazil, South Africa and 90+ more countries
How we build a materials-fluent engineering team
The Edstellar Materials Capability Model
Pinpoint the gaps
Skills Matrix and Stellar AI reveal exactly where your team's materials and composites knowledge falls short of your program goals.
Set one standard
Everyone selects materials, reads specs, and evaluates trade-offs against the same engineering criteria.
Practice on real work
Hands-on labs on your team's actual material choices, layup designs, and manufacturing processes.
Prove the lift
Re-benchmark on the Skills Matrix so leadership sees capability rise as a number, not a feeling.
Scale worldwide
One standard, 10+ languages, 5,000+ certified trainers, everywhere your engineering teams operate.
Need more than one program?Get a group quote
Trusted as a Leading Corporate Training Provider by
Program Overview: What is Advanced Materials and Composites Engineering Corporate Training
Advanced Materials & Composites Engineering is Edstellar's instructor-led technical program for engineering teams working with modern composite materials. Participants master polymer matrix composites, metal and ceramic matrix systems, smart materials, and the manufacturing processes that turn them into reliable products. The focus stays on engineering judgment: selecting, processing, and validating materials for real applications.
Training is hands-on from the first module. Participants explore material classification, microstructure, and testing fundamentals, then work through polymer, metal, and ceramic matrix systems in lab sessions. Instructors coach your team through manufacturing processes, hand layup, resin transfer molding, autoclave curing, and failure analysis with non-destructive testing, reviewing every exercise with direct feedback. The program closes with applied sessions on sustainable and emerging materials, from recyclable composites to smart materials.
Choosing the wrong material, or processing the right one badly, means field failures and missed performance targets. This program teaches your engineers to read microstructures, select matrix and reinforcement systems deliberately, and validate every choice with testing. Your team learns to catch defects before they leave the factory, not after.
Engineers work the full composites lifecycle, selection, manufacturing, testing, failure analysis, across the program's applied modules. By the end, your team specifies materials with test data behind every choice.
Material choices carry long consequences. A composite that performs in the lab can fail in production when curing cycles, fiber placement, or testing discipline are not controlled. This program gives your teams the judgment to prevent those failures: they learn to read material data sheets critically, design laminates for real loads, and verify quality with the right test at the right stage.
The result is a materials engineering capability your organization can rely on: faster, more defensible material decisions, fewer manufacturing surprises, and stronger collaboration between design, testing, and production teams.
What's Included in this Workshop for Your Enterprise Teams
- 1
Materials Selection Frameworks
Match advanced materials to real design and cost requirements.
- 2
Composite Design Fundamentals
Laminate design, fiber orientation, and load-path thinking.
- 3
Manufacturing Process Control
Layup, molding, curing, and additive processes for composites.
- 4
Testing & Failure Analysis
Mechanical testing, non-destructive testing, and root-cause analysis.
- 5
Sustainable & Emerging Materials
Recyclable composites, nanocomposites, and smart materials.
- Training delivered at any of your offices globally
- Live virtual delivery across time zones
- Batches scheduled around your working hours
- 10+ languages
- Dedicated program coordinator
- Completion certificates for participants
- Post-program learning resources
- Flexible scheduling and batch sizing
Build your team's skills. Anywhere in the world.
Real-world use cases
from day one
Instructor-led training
for your teams
Delivered globally
in 100+ countries
Enterprise Training Solutions Customized for Your Company
One partner for instructor-led corporate training, delivered the way your teams work.
Request a Training Quote- Customized Training Delivery
- Scale Your Training: Small to Large Teams
- In-person Onsite, Live Virtual or Hybrid Training Modes
- Plan from 2000+ Industry-ready Training Programs
- Hands-On Labs on Live Infrastructure, Led by Industry Experts
Advanced Materials and Composites Engineering Course Topics and Program Outline
Every module is customized to your industry, roles, and engineering workflows. This 24-hour program runs as focused workshop sessions across six modules, blending hands-on labs with real-world use cases from your team's work. Your trainer tailors the depth, tools covered, and lab exercises to your materials and manufacturing environment.
Built by Edstellar with senior materials engineers
Built by practitioners with 5+ years of experience in composites engineering, manufacturing, and materials testing.
Baseline each participant's materials readiness before module 01 begins
Build strong composites foundations in instructor-led sessions for your team
Reinforce skills through guided hands-on labs on laminate design and failure analysis
Apply materials skills to real-world scenarios and a capstone material strategy project
A short pre-training assessment sets each participant's entry level, so the program starts where your team actually is. The rest is weighted toward hands-on practice: guided labs on laminate design, manufacturing workflows, and materials testing drawn from your team's work, not slides.
Delivered as
Entry level set by the assessment. Depth and schedule customized to your team.
Analyze real material data sheets and property charts. Compare metals, polymers, ceramics, and composites to select candidate materials for a sample engineering requirement.
learna)Material classification and property maps
b)Microstructure and its effect on mechanical behavior
c)Mechanical testing fundamentals and key standards
d)Material selection frameworks for engineering teams
Design a simple composite laminate for a stated load case. Calculate fiber volume fraction, estimate stiffness, and justify fiber orientation choices in a guided exercise.
learna)Polymer matrices: thermosets, thermoplastics, and their trade-offs
b)Reinforcement fibers: glass, carbon, aramid, and natural fibers
c)Fiber-matrix interface and adhesion science
d)Laminate theory basics: ply stacking and load paths
e)Common defects: voids, delamination, and fiber waviness
Evaluate metal matrix and ceramic matrix composite options for a high-temperature component. Compare manufacturing routes and document selection rationale in a structured worksheet.
practicea)Metal matrix composites: reinforcements and processing routes
b)Ceramic matrix composites: properties and damage tolerance
c)High-temperature and wear-resistant applications
d)Design constraints and cost considerations for MMCs and CMCs
Work through a full manufacturing workflow in a hands-on lab: plan a layup sequence, set curing parameters, inspect a finished part, and identify process deviations from real production records.
practicea)Hand layup, spray-up, and vacuum bagging techniques
b)Resin transfer molding (RTM) and infusion processes
c)Autoclave and out-of-autoclave curing cycles
d)Filament winding, pultrusion, and compression molding
e)Additive manufacturing of composites and hybrid approaches
In a lab-style session, interpret ultrasonic and visual inspection data from real-world use cases. Run a structured root-cause analysis on a composite failure and propose corrective actions.
practicea)Mechanical testing: tensile, flexural, impact, and fatigue
b)Non-destructive testing: ultrasonic, thermography, and shearography
c)Reading test standards and acceptance criteria
d)Failure modes of composites and systematic failure analysis
Capstone project: develop a material strategy for a real product brief from your industry. Present material choices, manufacturing route, test plan, and sustainability rationale for trainer feedback.
applya)Recyclable, reusable, and bio-based composite systems
b)Nanocomposites: carbon nanotubes, graphene, and nano-clays
c)Smart materials: shape memory alloys and self-healing polymers
d)Capstone: end-to-end material strategy for a real product
Customize this program tailored to your team?
Tell us your training needs: what your team already works with, the level they’re at, and the topics you want them to focus on. We’ll adjust the modules, duration and hands-on labs, and send you a customized outline for your group.
Key Skills and Outcomes Your Team Will Gain
By the end of this program, every participant will be able to apply advanced materials and composites engineering to real design and manufacturing decisions.
Select advanced materials against engineering requirements
Evaluate metals, polymers, ceramics, and composites using property data, standards, and structured selection frameworks.
Design composite laminates for real loads
Choose fiber types, orientations, and ply stacking sequences that meet structural and durability targets.
Specify manufacturing processes for composites
Match layup, molding, curing, and additive routes to part geometry, volume, and quality requirements.
Apply testing and characterization methods
Plan mechanical and non-destructive testing programs and interpret results against acceptance criteria.
Perform failure analysis on composite parts
Trace failures to material, design, or process root causes and recommend corrective actions.
Evaluate sustainable and emerging materials
Assess recyclable composites, nanocomposites, and smart materials for viable engineering use.
Read and apply materials standards confidently
Use industry standards to specify, verify, and document material and process quality.
Which Employees Should Attend this Advanced Materials and Composites Engineering Training
Whether you are building a new composites capability or upskilling an experienced engineering group, this program adapts to your cohort's roles, experience, and industry context.
Evaluate advanced materials with engineering rigor.
Materials engineers learn to classify advanced materials, read property maps, and assess emerging composites against application requirements with structured testing.
Workflow friction
- Selecting materials without reliable property data
- Slow trial-and-error formulation cycles
- Emerging materials that are hard to assess
How the program helps
- Property-map-driven material selection
- Structured evaluation of emerging composites
- Testing standards applied consistently
Practice use cases
- Material selection exercises
- Property map workshops
- Emerging-material assessments
Run composite processes with repeatable quality.
Manufacturing engineers practice layup, infusion, and curing processes in guided labs, learning to control variation and scale processes to production.
Workflow friction
- Process variation across builds
- Cure cycle inconsistencies
- Scaling lab processes to production
How the program helps
- Repeatable layup and infusion technique
- Cure cycle control and monitoring
- Scale-up planning from lab to line
Practice use cases
- Layup and infusion labs
- Cure cycle workshops
- Process scale-up planning
Design lighter, stronger composite structures.
Design engineers learn composite design principles, joining methods for dissimilar materials, and how to meet weight targets without compromising safety.
Workflow friction
- Overdesign driven by material uncertainty
- Joining dissimilar materials reliably
- Meeting weight targets without compromising safety
How the program helps
- Confident composite design decisions
- Joining strategies for mixed materials
- Weight optimization with safety margins
Practice use cases
- Composite design studios
- Joint design exercises
- Weight-target case studies
Prove composite performance with defensible data.
Quality teams build skill in mechanical and non-destructive testing, failure analysis, and reading acceptance criteria so test results stand up to scrutiny.
Workflow friction
- Inconsistent interpretation of test results
- Non-destructive testing skill gaps
- Disputes over acceptance criteria
How the program helps
- Consistent test execution and interpretation
- NDT capability across the team
- Acceptance criteria applied uniformly
Practice use cases
- Mechanical testing labs
- NDT technique workshops
- Failure analysis drills
Cohorts train as a cross-functional workforce, with each small group aligned on shared material selection and testing standards.
Prerequisites: This program benefits design, manufacturing, quality, and R&D engineers and leaders who make or influence material decisions. Basic familiarity with engineering materials or manufacturing helps but is not required, and the trainer adapts depth and lab exercises to each cohort's experience level.
Materials Engineer to Composites Specialist
Materials engineers build core composite design and manufacturing skills, then progress to owning material strategy, qualification, and failure investigations as composites specialists.
One program that scales with careers: engineers enter with core materials knowledge and grow into composites specialists who own material strategy.
Mixed cohort, or several teams at once?
We can tailor the training to different teams, roles, and experience levels within the same program.
Certificate of Training Completion.
On successful completion, employees receive an Edstellar course completion certificate, recognizing their commitment to ongoing learning and professional development. It validates the skills they have built and motivates them to keep growing and contribute to organizational success.
Earned, not attended. Awarded on completion of all hands-on labs and the capstone project.
Training Delivery Modes: Virtual, Onsite and Hybrid
Not sure which format fits? Our learning consultants can recommend one based on your team's locations, lab needs, and schedule.
Onsite Classroom Training
Bring your engineering team together at your workplace for instructor-led training with full hands-on lab access.
- Instructor-led sessions at your offices or a training venue
- Hands-on labs with physical samples and test data
- Group exercises built around your products and processes
- Direct interaction with the trainer throughout the day
Live Virtual Training
Join live, instructor-led sessions from anywhere. Live virtual labs, shared simulations, and real-time trainer feedback keep it practical.
- Live instructor-led sessions across time zones
- Virtual labs and guided simulation exercises on Zoom or Teams
- Breakout groups for design and analysis exercises
- Digital materials, data sets, and lab worksheets included
Hybrid Training
Combine live virtual theory sessions with onsite lab days for the best of both formats.
- Theory delivered in live virtual sessions
- Hands-on lab days at your facility
- One consistent trainer across both formats
- Scheduled to minimize travel and production downtime
Need a training format that works for your team?
Full days, half days across weeks, or split by module. Tell us the delivery window and we schedule the cohort around it.
Frequently Asked Questions
The full program covers six modules across 24 hours of instructor-led training. Most teams complete it as a three-day intensive workshop, or split across six weekly sessions to fit production schedules.
Yes. Every program starts with a training needs analysis, and the curriculum is tailored to your industry, materials, manufacturing processes, and team roles, from aerospace and automotive to industrial products and energy.
The program is designed for materials, design, manufacturing, quality, and R&D engineers, as well as engineering leaders who influence material decisions. Basic engineering or materials familiarity helps but is not required; the trainer adapts the depth to your cohort.
Yes. The program is built around hands-on labs: laminate design exercises, manufacturing workflow planning, and testing and failure analysis using real data sets. Tools covered include material property databases, laminate calculation methods, and standard non-destructive testing techniques.
We offer onsite classroom training, live virtual instructor-led sessions, and a hybrid format that combines virtual theory with onsite lab days. All three formats keep the hands-on practice at the center.
Question not answered here?
Put it in the request. A training specialist answers it directly, within one business day.
Where this Training Fits in Your Team's learning path.
Advanced materials are the starting point here, because material choice drives how products are simulated, made and assembled. Your team learns the materials, simulates their performance in ANSYS, prints parts with additive methods, and finally designs for manufacture and assembly.
Why Choose Edstellar as Your Advanced Materials and Composites Engineering Training Partner
From a single engineering team workshop to an enterprise-wide rollout, Edstellar delivers consistent quality through one proven methodology, expert trainers, and a partner mindset that keeps your goals first.
EXPERT TRAINERS
YEARS DELIVERING
ORGANIZATIONS TRAINED
CERTIFIED
Tailored
Content shaped around your composites and manufacturing and testing use cases, so every session maps to your real composites needs.
Proven Methodology
5+ years delivering corporate training to engineering teams across industries and regions.
Practice-Based Learning
4 hands-on labs across 6 modules. Your team builds composite layup, test and analysis reports with instructor guidance.
Expert Trainers
5,000+ certified trainers matched to your materials R&D, with a full trainer profile shared before your program is booked.
Global Scale
One composites engineering program across your offices worldwide, in hybrid, onsite, or live virtual.
Measurable Outcomes
Baseline-to-capstone measurement and Skills Matrix reporting keep your composites capability lift visible.
Connect Composite Material Selection With Manufacturing and Failure Evidence
Edstellar helps engineering teams connect material properties with the decisions required to design, manufacture, and evaluate composite parts. Participants compare candidate materials, work through laminate and process choices, and interpret inspection and failure evidence. A product-specific material strategy brings together selection rationale, manufacturing plans, testing, and sustainability considerations.
- Step 01
Consult
We review materials experience and engineering responsibilities to identify needs in candidate selection, laminate design, manufacturing processes, inspection interpretation, or composite failure analysis.
- Step 02
Plan
We connect material foundations with polymer, metal, and ceramic composites before practicing manufacturing and characterization, then develop an integrated product material strategy.
- Step 03
Align
We align instruction with design, manufacturing, quality, and R&D perspectives, adjusting technical depth while preserving the connection between requirements, process choices, and evidence.
- Step 04
Customize
We tailor load cases, high-temperature component briefs, and inspection records to familiar engineering applications, retaining comparison of material properties, manufacturing routes, and sustainability trade-offs.
- Step 05
Execute
Participants estimate laminate behavior, plan layups, interpret inspection data, and investigate failures, receiving feedback on assumptions, selection rationale, and the evidence supporting corrective actions.
- Step 06
Evaluate
We review the material strategy for fit to engineering requirements, defensible manufacturing choices, an appropriate test plan, and a reasoned account of sustainability considerations.
Also from Edstellar
Talent assessments
Psychometric, behavioral, leadership and 360-degree assessment.
→Training needs analysis
Needs analysis, gap identification, and a training roadmap.
→L&D consulting
Learning strategy, content, technology and ROI measurement.
→OD consulting
Org design, succession planning and cultural change.
→Managed training services
Training outsourcing, vendor management, logistics and administration.
→Coaching solutions
Executive and manager coaching that keeps skills in use.
Start an RFP shaped to your needs.
Answer three quick questions about team size, scope, and how often you need the program run, then send the request from the last step. Everything you choose travels with it, so you only fill this in once.
How many team members need training?
Advanced Materials & Composites Engineering Training Training Packages & Pricing
Where L&D holds an annual budget, license packages price the whole year at once instead of raising a purchase order per workshop. Hours and licenses are pooled across teams, programs and locations, so unused capacity is not stranded in one department.
Starter
120
trainee licenses64 hours of group training
Tailored for SMBs
Growth
320
trainee licenses160 hours of group training
Ideal for growing SMBs
Enterprise
800
trainee licenses400 hours of group training
Designed for large corporations
Custom
Unlimited
trainee licensesDuration set by the rollout
Multi-region and multi-year
Training Packages & Pricing
Choose the training format that works for your team. Pricing is customized based on your requirements, cohort size, and delivery needs.
Request Advanced Materials and Composites Engineering Training for Your Team
Tell us about your team, goals, and preferred schedule. Book a discovery call and an Edstellar learning consultant will respond with a tailored training plan, trainer availability, and transparent pricing, usually within one business day.