Engineering summary
Welding is a practical skill that requires precision, consistency, and continuous training. However, traditional welding education can involve significant material consumption, workshop preparation, safety considerations, and equipment costs. As training programs expand, institutions also need efficient ways to provide students with meaningful...
Welding is a practical skill that requires precision, consistency, and continuous training. However, traditional welding education can involve significant material consumption, workshop preparation, safety considerations, and equipment costs. As training programs expand, institutions also need efficient ways to provide students with meaningful hands-on practice.
A dual-user VR welding simulator offers a practical approach to these challenges. By combining immersive virtual reality, realistic welding tools, motion tracking, and performance evaluation software, training institutions can create repeatable welding exercises in a controlled environment.
QuakeLogic’s QL-Dual User Welding Simulator is designed for vocational schools, technical colleges, workforce development centers, industrial training facilities, and other educational institutions.
Most importantly, the system allows two students to practice independently on one simulator. Each trainee can select different welding processes, positions, joints, and Welding Procedure Specifications (WPS).
As a result, institutions can increase training opportunities while maintaining individual performance tracking and instructor supervision.
What Is a VR Welding Simulator?
A VR welding simulator is a training system that recreates welding activities in an interactive virtual environment.
Instead of producing a real welding arc, students use simulated welding tools and a VR headset to practice welding techniques. The software reproduces welding behavior, including visual effects, welding sounds, and the consequences of different operator movements.
This approach allows trainees to develop familiarity with welding processes before working with conventional equipment.
Furthermore, virtual welding exercises can be repeated without consuming welding wire, electrodes, shielding gas, or physical practice coupons.
The QuakeLogic system combines this immersive training environment with physical welding devices, optical tracking, and instructor management software.
Consequently, students can practice technical movements while instructors evaluate their progress through measurable training results.
Two Students, One Simulator
One of the most important features of the QL-Dual User Welding Simulator is its simultaneous dual-operator capability.
Traditional single-user simulators generally provide one active training station. In contrast, the QuakeLogic system supports two independent welding exercises at the same time.
Each student receives a dedicated VR headset, welding device set, and adjustable welding stand.
Additionally, each trainee can independently configure:
- Welding process
- Welding position
- Practice coupon
- Joint configuration
- Welding Procedure Specification
- Exercise parameters
- Individual performance evaluation
For example, one student may practice MIG welding while another performs a TIG welding exercise.
Both students can work simultaneously without needing identical training settings.
This configuration helps institutions make better use of available classroom time. Moreover, instructors can supervise two independent exercises through one integrated simulator platform.
Watch the Dual-User Simulator in Action
Explore the QL-Dual User Welding Simulator in this complete system demonstration. See how two trainees can practice welding simultaneously using independent VR equipment, realistic welding tools, and an integrated training platform.
Supported Welding Processes
A successful welding education program should introduce students to multiple welding processes.
For this reason, the QuakeLogic dual-user VR welding simulator supports several industry-standard welding techniques.
SMAW — Stick Welding

Shielded Metal Arc Welding (SMAW) is widely used in construction, maintenance, fabrication, and industrial applications.
The simulator includes a retractable stick stinger device that represents the operation of conventional stick welding equipment.
Students can practice electrode positioning, movement, and technique while observing simulated electrode consumption.
The SMAW module supports E6013, E7018, and E6010 electrode types, along with different electrode sizes and clamping angles.
GMAW — MIG Welding
Gas Metal Arc Welding (GMAW), commonly called MIG welding, is frequently used in manufacturing and fabrication.
The simulator provides a MIG welding gun interface and configurable process parameters.
Students can practice techniques involving arc length, work angle, travel angle, and welding speed.
In addition, the GMAW module supports Short Arc, Axial Spray, and Pulse modes, allowing instructors to introduce different welding behaviors.
FCAW — Flux-Cored Arc Welding
Flux-Cored Arc Welding (FCAW) is used in a range of industrial applications, including structural fabrication and heavy manufacturing.
The simulator supports gas-shielded and self-shielded FCAW exercises.
Therefore, trainees can become familiar with different process configurations before progressing to physical welding practice.
GTAW — TIG Welding
Gas Tungsten Arc Welding (GTAW), commonly called TIG welding, requires precise torch movement and control.
The QuakeLogic simulator supports TIG exercises with and without filler metal.
It also includes a TIG torch, filler rod capability, and an adaptive foot pedal.
As a result, students can practice the coordination required for TIG welding within a repeatable virtual environment.
Realistic Welding Simulation

Effective virtual welding training depends on more than visual appearance.
Students must understand how their movements and equipment settings affect the welding process.
The QL-Dual User Welding Simulator recreates several important aspects of welding behavior, including:
- Welding puddle formation
- Arc and spark effects
- Slag formation
- Grinding effects
- Weld cooling
- Dynamic welding sounds
- Welding discontinuities
- Virtual bend test evaluation
The simulator also supports different base materials, including mild steel, stainless steel, and aluminum.
Before beginning an exercise, students can configure welding parameters according to the selected WPS.
For example, they may need to select the correct welding process, material, voltage, current, polarity, wire feed speed, or shielding gas settings.
This creates an opportunity to connect welding theory with practical decision-making.
However, virtual welding remains a training tool. Physical welding practice and applicable qualification procedures are still necessary when preparing students for real-world production work.
Experience Virtual Welding Training
Discover how immersive VR technology brings welding exercises into a controlled training environment. Watch QuakeLogic’s welding simulator demonstration to explore virtual practice, realistic welding interactions, and technology-supported skills development.
Welding Positions and Joints
Industrial welders must be able to work in different positions and on different joint configurations.
Therefore, the QuakeLogic simulator supports a broad range of welding exercises.
Supported groove welding positions include 1G, 2G, 3G, 4G, 5G, and 6G.
Likewise, supported fillet welding positions include 1F, 2F, 3F, 4F, 5F, and 6F.
Students can also practice flat, horizontal, vertical, and overhead welding techniques.
Available joint configurations include butt, lap, fillet, tee, groove, and pad welds.
Furthermore, the system supports plate and pipe exercises, including pipe-to-pipe and pipe-to-plate configurations.
This flexibility allows instructors to design exercises around different skill levels and training objectives.
Precision Motion Tracking

Accurate movement tracking is an important part of virtual welding training.
The QL-Dual User Welding Simulator uses an optical infrared tracking system with four base stations or cameras.
This tracking infrastructure helps the software detect the position and movement of the welding tools during exercises.
Consequently, the system can provide feedback related to torch movement, posture, and welding technique.
The simulator also includes two adjustable welding stands.
These stands support different exercise configurations and welding positions. Their height-adjustable design helps instructors adapt the training environment to different students and tasks.
Together, the tracking system and physical welding devices connect the student’s movements with the virtual welding experience.
Instructor Monitoring and Evaluation

Welding education requires consistent feedback.
Without measurable results, instructors may find it difficult to compare student performance or identify specific areas for improvement.
The QuakeLogic simulator includes an integrated software platform for instructor monitoring, student management, assessment, and reporting.
Instructors can observe welding exercises in real time using adjustable viewing angles and zoom controls.
They can also inspect virtual welding coupons from different perspectives.
The system supports individual student accounts, allowing training records and results to be managed separately.
Additional software capabilities include:
- Student account management
- Real-time instructor monitoring
- Welding performance evaluation
- Practical examination functions
- Homework assignments
- Achievement ranking
- Exercise replay
- Training reports
- PDF report downloads
- Training activity management
As a result, instructors can evaluate individual progress while maintaining a more organized training workflow.
Moreover, objective performance feedback helps students identify technical mistakes and focus on improving specific welding skills.
Structured Welding Education
A virtual welding simulator becomes more valuable when it supports a structured training curriculum.
The QuakeLogic system includes training content for different experience levels, from introductory exercises to advanced welding practice.
Students can progress through basic, primary, intermediate, advanced, and professional training activities.
The platform also includes lesson modes, technical demonstrations, welding principles, safety instruction, and WPS-based training.
In addition, guidance functions help trainees understand the correct welding technique before completing exercises independently.
Course progression can be linked to successful completion of previous activities.
Therefore, instructors can develop training programs that gradually introduce more demanding welding tasks.
This structured approach is particularly useful for institutions that need repeatable training procedures across multiple student groups.
Industrial Training Environments
Welding skills are applied in many different industries.
For this reason, the simulator includes virtual work environments representing a range of industrial settings.
Examples include shipyards, construction sites, manufacturing workshops, oil pipelines, pipe processing facilities, railway applications, aviation hangars, and other specialized environments.
These scenarios help students understand how welding activities relate to different workplaces.
For instance, pipe welding exercises can support training programs focused on industrial piping. Meanwhile, structural welding scenarios may be useful for students preparing for fabrication and construction-related work.
Although these virtual environments do not replace field experience, they provide additional context for technical training.
Safer and More Efficient Practice
Safety is one of the strongest reasons to introduce VR welding training into an educational environment.
Traditional welding involves heat, electrical equipment, fumes, sparks, and other workplace hazards.
In contrast, virtual welding exercises do not generate a real welding arc.
Therefore, students can practice introductory techniques without exposure to welding fumes, arc radiation, or hot metal generated by actual welding.
The simulator also reduces consumable material use during virtual exercises.
For institutions with large student groups, this can support more efficient training preparation and reduce material consumption associated with repeated introductory practice.
Furthermore, exercises can be repeated without preparing a new physical coupon for every attempt.
This allows students to concentrate on improving technique before moving into conventional workshop training.
Nevertheless, VR training should complement practical safety instruction and supervised hands-on welding rather than replace them.
System Hardware and Integration

The QL-Dual User Welding Simulator is delivered as an integrated training system rather than a standalone VR headset application.
Its standard configuration includes a central console with an integrated touchscreen, two VR headsets, four optical infrared tracking stations, two external displays, and two complete welding device and stand sets.
The system also includes simulated welding tools for SMAW, GMAW/FCAW, and GTAW training.
An adaptive foot pedal supports TIG welding exercises.
Meanwhile, the software platform connects training activities with scoring, monitoring, reporting, and student management.
This integration is important because the hardware and software must work together during every exercise.
For example, welding tool movement must be detected accurately and translated into the virtual environment. At the same time, the software must evaluate the exercise and preserve the student’s results.
Therefore, the complete system architecture is essential to the training experience.
Installation and Training Support
Introducing new laboratory equipment requires more than purchasing hardware.
Educational institutions must also consider installation, calibration, instructor preparation, and long-term technical support.
QuakeLogic provides delivery, installation, and commissioning services for the QL-Dual User Welding Simulator.
The documented delivery scope also includes a minimum of five days of operator training and instructor orientation, including system calibration.
Training and user manuals are supplied with the system.
Additionally, the documented offering includes a one-year limited warranty, an extended warranty option, and software support during the warranty period.
Final installation requirements, including electrical configuration, should be confirmed according to the facility.
This approach helps institutions prepare their training environment and develop a practical plan for operating the simulator.
Who Can Benefit?
The dual-user VR welding simulator is suitable for organizations that need repeatable, measurable welding training.
Potential users include vocational schools, technical colleges, workforce development centers, industrial training laboratories, correctional education programs, and career training institutions.
For educators, the system provides tools for managing exercises and evaluating progress.
For students, it creates opportunities to practice different welding processes and receive structured feedback.
For training administrators, the dual-user configuration offers a way to support two simultaneous trainees through one integrated simulator.
In addition, industrial training organizations can use the platform to introduce welding techniques before employees progress to supervised practical exercises.
Ultimately, the value of the system depends on how effectively it is integrated into the institution’s broader training curriculum.
Why QuakeLogic
The QL-Dual User Welding Simulator demonstrates QuakeLogic’s approach to delivering full-cycle engineering solutions that combine specialized hardware, software, immersive technology, and intelligent training workflows into one unified system.
Rather than focusing only on individual devices, QuakeLogic brings together VR equipment, physical welding interfaces, optical tracking, simulation software, instructor monitoring, and performance evaluation.
From system configuration and integration to installation, calibration, commissioning, and operator training, each component contributes to a coordinated educational solution.
This integrated approach is designed to support precision, reliability, practical usability, and long-term training performance.
Moreover, the platform demonstrates how digital simulation and structured performance analysis can improve the way technical skills are taught and evaluated.
Whether you are establishing a new welding laboratory, expanding a vocational education program, or modernizing an industrial training facility, QuakeLogic can help you evaluate a solution tailored to your training requirements.
Let’s build the future of your training facility together. Contact QuakeLogic today to discuss your custom VR welding simulation and technical education needs.
Email us at sales@quakelogic.net | Visit us at products.QuakeLogic.net
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Reviewed by
Emily Vargun
Published by QuakeLogic engineers and seismic monitoring specialists. QuakeLogic designs earthquake early warning, structural health monitoring, infrasound, vibration monitoring, and shake table testing systems for infrastructure, research, public safety, and industrial engineering teams.
Topic cluster
Related engineering knowledge areas
- Earthquake EngineeringSeismic hazard, ground motion, structural response, fragility, and resilience guidance.
- Infrastructure MonitoringMonitoring strategies for LNG facilities, dams, bridges, buildings, tunnels, hospitals, and industrial assets.
- Earthquake ResearchUniversity, laboratory, field research, education, publications, and seismic testing methods.
Key takeaways
What this article covers
- Welding is a practical skill that requires precision, consistency, and continuous training.
- However, traditional welding education can involve significant material consumption, workshop preparation, safety considerations, and equipment costs.
- As training programs expand, institutions also need efficient ways to provide students with meaningful hands-on practice.
Definitions and references
Terms, standards, and source cues
- seismic hazard: related to Earthquake Engineering in this QuakeLogic knowledge cluster.
- ground motion: related to Earthquake Engineering in this QuakeLogic knowledge cluster.
- infrastructure resilience: related to Infrastructure Monitoring in this QuakeLogic knowledge cluster.
- LNG monitoring: related to Infrastructure Monitoring in this QuakeLogic knowledge cluster.
- earthquake research: related to Earthquake Research in this QuakeLogic knowledge cluster.
- university labs: related to Earthquake Research in this QuakeLogic knowledge cluster.
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