Nanofabrication Coureses

VR - Nanofabrication Processing Coureses

VR - Nanofabrication Processing Coureses

Semiconductor Talent Training Plan Progressive Training System, Goal Programming


Customized courses

Government open courses

Joint development courses with educational institutions (universities, vocational colleges) and practice bases


Pre-employment corporate training: Theory + Practical Training To hit specific customer needs, such as 4 years, 2 years, or short-term.

Fields of Application

Wafer Cleaning

Photolithography

Contact Exposure Training

Stepper Lithography Training

Magnetron Sputtering Training

VR - Nanofabrication Processing Courses Assistant:

The key findings were:

Immersive and interactive VR system

Wafer Cleaning: Ensures wafer surface cleanliness before entering fabrication steps.

Photolithography: Transfers circuit patterns onto wafer surfaces using mask-based light exposure.

Contact Exposure Training: Develops understanding of contact aligner operation and exposure principles.

Stepper Lithography Training: Differentiates contact and projection exposure techniques and trains on stepper systems.

Magnetron Sputtering Training: Covers thin film deposition techniques using magnetron sputtering.

Guaranteed Learning Outcomes

Upon Course Completion:

  • Deep understanding of nanofabrication processes
  • Industry-ready practical skills
  • Reduced onboarding time in real cleanroom environments
  • Confidence in precision manufacturing operations
  • Comprehensive knowledge of safety protocols

Revolutionary Advantages of VR Training System

Maximum Cost Efficiency

Industry Testimonials

"Our VR training system reduced new employee onboarding time by 70% while improving safety scores by 95%."

"Students now enter our cleanroom with confidence and practical knowledge that would take months to acquire through traditional methods."


The future of nanofabrication education is here!

Start Your VR Journey Today


Immediate access to cutting-edge training

Industry-leading curriculum

Proven learning outcomes

Unmatched cost efficiency


Contact us now to revolutionize your nanofabrication training program!

Competitive Advantages Over Traditional Methods

Speed & Efficiency

Traditional: Weeks of preparation, limited practice time

VR: Instant access, unlimited repetition, accelerated learning curve


Accessibility

Traditional: Geographic limitations, expensive facility access

VR: Global accessibility, 24/7 availability, democratized education


Customization

Traditional: Fixed curriculum, one-size-fits-all approach

VR: Personalized learning paths, adaptive difficulty levels


Performance Tracking

Traditional: Limited assessment capabilities

VR: Real-time analytics, detailed progress reports, skill verification



Revolutionary Advantages of VR Training System

Maximum Cost Efficiency

Traditional Cleanroom: Extremely high construction and maintenance costs (millions of dollars)

VR System: One-time investment, unlimited usage, zero operational costs


Ultimate Safety

Traditional Cleanroom: High risk from hazardous chemicals, expensive equipment damage, potential accidents

VR System: Risk-free training environment, learn from mistakes without consequences


Superior Learning Effectiveness

Traditional Cleanroom: Limited student capacity, restricted operating hours, limited practice opportunities

VR System: Learn anytime, anywhere, unlimited practice sessions, repeat difficult sections

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Features

Applications

WinSPM EDU 

Scanning Probe Coureses 

( Microscope Educational System )

WinSPM EDU

Scanning Probe Coureses

WinSPM EDU: Revolutionary Nanoscience Education Platform

Product Introduction


The WinSPM EDU system was awarded the 'First Prize for National Educational Instruments', honoring its innovative design, reliable performance, and proven utility in advanced nanoscience teaching in universities across China. WinSPM EDU is a scanning probe microscope system tailored for nanoscience education, offering multiple imaging modes, probe types, and intelligent software for experiments, course modules, and research training.


This government-recognized platform combines cutting-edge atomic force microscopy (AFM) and scanning tunneling microscopy (STM) capabilities with intelligent educational software, making advanced nanotechnology accessible to students and researchers alike.


Unlike traditional research instruments adapted for teaching, WinSPM EDU was purpose-built from the ground up for educational excellence.

The system eliminates complex operational barriers while maintaining research-grade performance, enabling institutions to deliver world-class nanoscience education without the typical technical overhead.



Key Innovation
: The first educational SPM system to integrate self-sensing piezoelectric probes, eliminating laser alignment complexity while achieving sub-nanometer resolutionmaking atomic-scale imaging as simple as operating a standard microscope.

Fields of Application for University and Institute Nanotechnology Lab

Semiconductor Process Education and Failure Analysis

Materials Science Research

Optoelectronic Device Characterization

Surface Engineering & Roughness Analysis

Micro/Nano Fabrication Courses

Key Advantages:

  • No laser adjustment required, easy and safe operation
  • Compatible with self-sensing piezoelectric probes for force curve and nanoindentation analysis
  • Compact and integrated design ideal for educational deployment
  • Atomic-scale resolution, suitable for advanced education and research training
  • Versatile functions cover both research and teaching use cases
  • Modular architecture with scalable upgrades and low maintenance cost

Technical Specifications

  • The multi-environment Atomic Force Microscope (AFM) platform supports various scanning modes, including contact mode, tapping mode, phase imaging, and frequency-modulated topography imaging.
  • Compatible with self-sensing piezoelectric probes (Sakaiyama probes), eliminating the need for laser systems and simplifying operation.
  • Capable of performing force curve measurements and nanoindentation.
  • Minimum scanning range is 20 × 20 × 3 μm³ with a resolution better than 0.1 nm.
  • Maximum supported sample size: 20 mm in diameter, up to 5 mm in thickness.
  • Supports adjustable scanning range and visualized scan area selection.
  • Comes with standard calibration samples and a wide variety of experimental specimens.
  • Optional optical modules and educational expansion kits are available.
  • Optical modules and video interfaces available
  • Educational expansion kits for STEM integration


Proven Applications

Research Capabilities:

  • 2D material atomic lattice imaging
  • Nanoparticle aggregation analysis
  • Biological membrane topography
  • Crystalline step height profiling



Teaching Modules

Core Value Propositions

1. Educational Excellence

Purpose-built for teaching: Specifically designed for nanoscience education

Complete curriculum support: Ready-to-use teaching modules and experiments

Student-friendly operation: No complex laser adjustments required


2. Advanced Technology

Atomic-scale resolution: <0.1 nm precision for high-quality research

Multiple imaging modes: Contact, tapping, phase, frequency-modulated topography

Versatile probe compatibility: Self-sensing piezoelectric and laser-based probes

3D analysis capabilities: Force curves, nanoindentation, image reconstruction


3. Practical Advantages

Compact design: Space-efficient for classroom deployment

Safe operation: Simplified controls reduce training time and accidents

Modular architecture: Scalable upgrades with low maintenance costs

Comprehensive software: Built-in analysis, statistics, and 3D rendering


Educational Package Includes

Ready-to-Teach Modules:

  • AFM imaging of various samples
  • Force curve measurements and nanoindentation
  • Surface topography and nanostructure analysis
  • STM imaging demonstrations (optional)
  • Data processing and 3D image reconstruction
  • Sample classification based on image recognition


Industry Applications:


  • Semiconductor process education and failure analysis
  • Materials science research
  • Optoelectronic device characterization
  • Surface engineering and roughness analysis
  • Micro/nano fabrication course support


Feel free to contact us for detailed technical documents, configuration plans, or to schedule a remote demo and case sharing.

Fields of Application & Services

Automobile

Enhancing vehicle performance and safety through advanced material assessment.

Nanoscience

Enabling researchers to examine surfaces at the nanoscale, contributing to innovations in materials and devices.

Semiconductor

Providing the precision required for semiconductor manufacturing, from wafer inspection to micro-level surface analysis.

General Consumables (Accessories)

AFM Accessories

SEM Consumables

TEM Consumables

SERS Chip Substrate

GGB Series

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