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Facilities

SEMICONDUCTOR FACILITIES · MEASUREMENT · PROCESS · PACKAGING

A Complete Hands-On Semiconductor Learning Environment

The Bachelor Program of Semiconductor at Asia University integrates material characterization, device measurement, thin-film processing, IC packaging, and immersive learning resources, transforming classroom knowledge into practical engineering capabilities.

01|Electrical and Surface Characterization

Develop essential measurement and data-analysis skills spanning device characteristics, thin-film profiles, optical properties, and carrier transport.

This is an imageMEASUREMENT 01

Semiconductor Device Analyzer

Keysight B1500A

A modular platform for I–V, C–V, and pulsed measurements of transistors, diodes, sensors, thin-film devices, and emerging semiconductor materials.

  • Ten-slot modular mainframe
  • Current range of approximately 0.1 fA to 1 A, depending on modules
  • Voltage range of approximately 0.5 μV to 200 V, depending on modules
  • Spot, sweep, time, and pulsed I–V measurements
  • Approximately 1 kHz to 5 MHz C–V measurement with a supported module
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MEASUREMENT 02

Semiconductor Parameter Analyzer

HP 4145B

A semiconductor characterization instrument for DC electrical measurements and characteristic-curve analysis of diodes, transistors, sensors, and thin-film devices.

  • I–V characteristic-curve measurement
  • Multiple source-measure and voltage-monitoring functions
  • Suitable for diodes, transistors, and sensing devices
  • Supports parameter extraction and process comparison
  • Actual ranges depend on instrument configuration and test conditions
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MEASUREMENT 03

Four-Point Probe System

Sheet Resistance Measurement

The four-probe configuration separates current supply from voltage measurement, reducing contact-resistance effects when characterizing wafers and thin films.

  • Sheet-resistance measurement of wafers and thin films
  • Material resistivity calculation with known thickness
  • Reduced lead and contact-resistance errors
  • Suitable for conductive films and transparent electrodes
  • Range depends on the probe head, meter, and sample conditions
Surface Profiler
MEASUREMENT 04

Surface Profiler

Stylus Profilometry

A diamond stylus scans the sample surface to measure thin-film thickness, step height, surface roughness, and microstructural profiles.

  • Thin-film thickness and etching-depth measurement
  • Two-dimensional surface-profile acquisition
  • Step-height and roughness analysis
  • Suitable for metals, glass, and semiconductor films
  • Resolution depends on the stylus and scanning conditions
This is an imageMEASUREMENT 05

UV-Visible Spectrophotometer

JASCO V-760

Measures optical absorption and transmission in the ultraviolet and visible regions for thin films, nanomaterials, and optoelectronic materials.

  • Wavelength range of approximately 187–900 nm
  • Wavelength accuracy of approximately ±0.1 nm at 656.1 nm
  • Wavelength repeatability of approximately ±0.05 nm
  • Double-monochromator, double-beam, and PMT design
  • Scanning speed up to approximately 4,000 nm/min
Electrochemical Workstation
MEASUREMENT 06

Electrochemical Workstation

Admiral Instruments Squidstat Plus

Integrates potentiostatic, galvanostatic, and impedance measurements for sensors, energy materials, corrosion studies, and electrochemical devices.

  • Scanning voltage range of approximately ±10 V
  • Compliance voltage of approximately ±12 V
  • Maximum output current of approximately ±1 A
  • Current resolution down to approximately 3 pA
  • EIS frequency range of approximately 10 μHz to 2 MHz
This is an imageMEASUREMENT 07

Water Contact Angle Analyzer

Surface Wettability Analysis

Uses droplet-image analysis to evaluate surface wettability and the effects of cleaning, coating, surface treatment, and packaging-interface preparation.

  • Static water-contact-angle measurement
  • Hydrophilic and hydrophobic surface evaluation
  • Cleaning and surface-treatment assessment
  • Potential extension to surface-energy analysis
  • Accuracy depends on imaging, droplet, and software settings
Hall Measurement System
MEASUREMENT 08

Hall Measurement System

Carrier Transport Characterization

Uses an applied magnetic field and Hall voltage to determine conductivity type, carrier concentration, mobility, sheet resistance, and resistivity.

  • N-type and P-type semiconductor identification
  • Carrier concentration and mobility measurement
  • Sheet resistance and resistivity analysis
  • Suitable for semiconductor and transparent conductive films
  • Conditions depend on sample dimensions and contact quality
V101 Automated Test and Integration System
MEASUREMENT 09

V101 Automated Test and Integration System

Automated Device Verification

A flexible platform that integrates instruments, control modules, and test sequences to establish repeatable automated verification procedures.

  • Automated test-sequence configuration
  • Integration with probe stations and electrical instruments
  • Suitable for device analysis and process verification
  • Improves measurement consistency and data management
  • Functions depend on installed modules and configuration
Probe Station
MEASUREMENT 10

Probe Station

Wafer-Level Electrical Probing

Combines an optical microscope, precision positioning stage, and microprobes for electrical measurements on wafers, dies, and small electrode structures.

  • Wafer- and die-level electrical measurements
  • Precision XYZ positioning and probe alignment
  • Connection to parameter analyzers and source meters
  • Suitable for I–V, resistance, and contact measurements
  • Capability depends on probe and instrument configuration
Solar Simulator
MEASUREMENT 11

Solar Simulator

Photovoltaic and Photodetector Testing

Provides a controlled light source approximating a standardized solar spectrum for evaluating photovoltaic devices, photodetectors, and optoelectronic materials.

  • Standardized solar-illumination simulation
  • Commonly associated with AM 1.5 Global testing concepts
  • Can be integrated with I–V measurement
  • Suitable for solar cells and photodetectors
  • Irradiance and spectral performance depend on calibration

02|Thin-Film and Materials Processing

Explore thin-film deposition, thermal treatment, and precision coating processes used to transform materials into functional device structures.

Vacuum Evaporation System
PROCESS 01

Vacuum Evaporation System

Physical Vapor Deposition

Evaporates source material in a vacuum and deposits it onto a substrate to form thin films, metal electrodes, and functional coatings.

  • Physical vapor deposition process
  • Suitable for metal electrodes and thin films
  • Supports high-purity, low-contamination deposition
  • Thickness and rate depend on material and system settings
Thermal Annealing System
PROCESS 02

Thermal Annealing System

Controlled Thermal Processing

Uses controlled temperatures and atmospheres to improve crystallinity, thin-film quality, electrical contacts, and process stability.

  • Controlled heating, holding, and cooling programs
  • Suitable for crystallization and defect recovery
  • Supports stress relief and contact improvement
  • Temperature and atmosphere depend on process requirements
Sputtering System
PROCESS 03

Sputtering System

Plasma-Assisted Thin-Film Deposition

Uses plasma ions to eject atoms from a target and deposit dense, adherent films on substrates.

  • Physical vapor deposition and plasma processing
  • Suitable for metals and functional films
  • Produces dense films with good adhesion
  • Power, pressure, and gas flow are process-controlled
Ultrasonic Spray Coating System
PROCESS 04

Ultrasonic Spray Coating System

Precision Solution-Based Coating

Uses ultrasonic vibration to atomize liquids into fine droplets for uniform, material-efficient, large-area coating.

  • Precision liquid atomization and coating
  • Improved uniformity with reduced material waste
  • Suitable for functional inks and solution processing
  • Flow, speed, and nozzle height can be adjusted

06|IC PACKAGING

IC Packaging Quasi Production Line Co-Created with SPIL, connecting wafer dicing, die bonding, and wire bonding.

IC Packaging Quasi Production Line Co-Created with SPIL

This industry–university platform combines packaging equipment, engineering experience, and academic courses to develop practical skills in equipment operation, materials, process control, quality inspection, and safety.

This is an imageIC PACKAGING 01

Dicing Saw

Wafer Singulation

Separates a processed wafer into individual dies while introducing wafer mounting, blade systems, cooling, alignment, and cut-quality inspection.

  • Wafer mounting with blue tape and frames
  • Dicing blade and spindle systems
  • Deionized-water supply and cooling
  • Street alignment, chipping, and cut-quality inspection
  • Specifications depend on machine model and process setup
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IC PACKAGING 02

Die Bonder

Die Attach and Precision Placement

Picks and accurately places individual dies onto substrates or leadframes while integrating ejector, collet, vision-alignment, and bonding-force controls.

  • XY positioning accuracy of approximately ±30 μm at 3σ
  • Rotational accuracy of approximately ±1.5°
  • Bonding-force range of approximately 30–500 g
  • Supports DAF, collets, ejector needles, and fixtures
  • Throughput depends on die and process conditions
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IC PACKAGING 03

Wire Bonder

Electrical Interconnection

Uses fine metal wires to connect die pads with substrate or leadframe pads, establishing electrical paths inside the package.

  • Introduction to ball- and wedge-bonding concepts
  • Wire, bonding-tool, and wire-path configuration
  • Bond placement, loop profile, and quality inspection
  • Force, ultrasonic energy, and bonding-time concepts
  • Specifications depend on machine and wire configuration

07|AR/VR IMMERSIVE LEARNING

Immersive technologies support packaging-equipment training, standard operating procedures, and safety education.

Immersive Semiconductor Engineering Training

The planned AR/VR classroom will convert packaging processes, equipment structures, operating procedures, and abnormal-event responses into visual learning content. Students can establish process awareness and safety concepts before operating high-precision equipment.

Process SimulationVisualize packaging processes and equipment workflows in three dimensions.
Equipment TrainingBecome familiar with interfaces, operating sequences, and standard procedures.
Safety ScenariosPractice abnormal-event response, risk recognition, and laboratory safety.
Collaborative LearningCombine large displays, interactive teaching, and group-based practice.
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Equipment functions and specifications are subject to installed configurations, maintenance status, instructional requirements, and official manufacturer information. Operation must follow laboratory safety regulations and faculty or technical-staff guidance.