Advantest T2000 Modular SoC and Mixed-Signal Semiconductor Test System
Advantest T2000 modular semiconductor test system for SoC, digital, mixed-signal, PMIC, automotive d
Semiconductor Electrical Test
Semiconductor ATE Systems for IC Testing
Semiconductor automatic test equipment applies programmed electrical stimuli to an IC, measures the response and determines whether the device meets its specification. Browse available ATE systems for SoC, digital, mixed-signal, PMIC and related applications, then match the tester configuration to your device, test stage and production target.
Current Equipment
Available Semiconductor ATE Systems
Review the current equipment collection, then confirm the installed modules, test head, software, calibration status and interface hardware of the actual system being quoted.
Two testers with the same platform name can have very different capabilities. The complete configuration list matters more than the model name alone.
Application Matching
Start With the Device Functions You Must Test
An ATE system is not selected only by pin count or brand. The required tester resources come from the electrical functions inside the target IC.
Digital speed, analog accuracy, device power, high-current capability, image capture and RF resources may all change the correct platform and module combination.
Review a Device Test RequirementDevice AreaTypical Tester ResourcesMain Buying Question
DigitalSoC, MCU & FPGA
High-density digital channels, scan, memory, timing and per-pin parametric measurement.
Do the data rate, pin count and pattern resources match the device?
PowerPMIC & Automotive IC
Device power supplies, voltage/current measurement, high-voltage or high-current resources.
Can the installed modules source and measure the required operating ranges?
AnalogMixed-Signal, ADC & DAC
Waveform generation, digitization, PMU, timing and low-noise analog measurement.
Does the tester meet the bandwidth, accuracy and dynamic-range target?
ImagingCMOS Image Sensors
Image capture, high-speed interfaces, digital control, analog measurement and processing resources.
Are the capture modules, software and optical interface included?
SpecializedRF, Memory or Discrete Power
Application-specific RF, memory or power instrumentation and dedicated interface hardware.
Is a general SoC tester suitable, or is a specialized platform required?
Complete Test Cell
The Tester Is Only One Part of the ATE System
Successful wafer sort or final test depends on the complete signal and mechanical path. The tester, interface hardware, prober or handler, software and production data flow must work as one cell.
Prober or Handler
Positions the wafer die or packaged device, controls contact and may provide temperature conditioning.
DUT Interface
Probe card, load board, socket, pogo assembly and cables carry stimulus and measurements.
Test Head & Instruments
Digital, analog, power and parametric modules provide the electrical resources required by the DUT.
Test Program
Patterns, limits, timing, measurement sequences and binning logic execute the device test plan.
Data & Factory Integration
Results move into yield analysis, traceability, MES and production-control systems.
Buying an ATE mainframe without the correct interface and software can leave the system unusable for the target product. Confirm the complete test cell before comparing quotations.
Explore Test & Handling Solutions →
Test Stage
Will the ATE Run at Wafer Sort or Final Test?
The electrical tester may support both stages, but the mechanical interface, contact hardware, parallelism and production flow are different.
ATE Connected to a Probe Station or Wafer Prober
Electrical tests are performed directly on die before dicing. The cell requires the correct probe card, wafer map flow, chuck conditions and prober interface.
- Probe-card format and pin count
- Wafer size and temperature requirement
- Known-good-die and wafer-map workflow
- Multi-site probing and contact yield
ATE Connected to a Semiconductor Test Handler
Packaged ICs are presented to sockets, electrically tested and sorted by result. The cell requires matching handler, HIFIX, contactor, load board and temperature setup.
- Package and socket compatibility
- Handler docking and load-board format
- Ambient, hot or cold test conditions
- Bin output and production traceability
Cost of Test LeversCoT
Test Time
High
Multi-Site Efficiency
High
Contact Yield
Core
Utilization & Changeover
Core
The bars illustrate decision importance, not measured performance. Actual cost of test must be calculated from your device, program, interface and production data.
Production Economics
Lower Cost of Test, Not Just a Lower Tester Price
ATE buyers often compare purchase price first, but production economics are usually driven by test time, parallel site count, retest rate, contact stability and system utilization.
A lower-cost tester can become expensive if it lacks the channels, instruments or interface capacity needed for the intended multi-site plan. An oversized configuration can also leave capital idle.
The practical target is a system configuration that provides the required coverage and throughput without paying for instruments the device will not use.
Used ATE Verification
Request a Configuration Passport Before Evaluating a Used ATE System
A used semiconductor tester cannot be evaluated from the platform name alone. Ask for a complete hardware, software and interface inventory tied to the actual machine.
System IdentityModel Name Is Only the Starting Point
The value of a used ATE system depends on the installed resources and whether they match the target test program.
VERIFY
BEFORE
QUOTE
BEFORE
QUOTE
HardwareMainframe, Test Head & Cooling
Confirm frame type, slot count, test-head model, air or liquid cooling and power requirements.
InstrumentationModules, Quantities & Revisions
Request exact digital, analog, PMU, DPS, high-power or image-capture module lists.
SoftwareVersion, Licenses & Development Tools
Check that the controller, operating system and software support the installed instruments.
InterfaceBoards, Sockets, Probe Interfaces & Cables
Identify what is included and what must be designed or sourced separately for the DUT.
ConditionCalibration, Diagnostics & Service History
Review calibration dates, power-on status, diagnostic records and previous application.
DeliveryDeinstallation, Packing & Startup Scope
Clarify test-head support, export packing, rigging, installation and post-delivery calibration.
Continue the Test Cell Review
Related Equipment and Semiconductor Test Guidance
Use these links when the requirement extends beyond the tester itself or when the test stage still needs to be defined.
Probe Stations, Handlers and ATE in the Complete IC Test Flow
Review how wafer probing, final-test handling and electrical test resources work together from CP testing through packaged-device sorting.
Read the Semiconductor Test Guide →
Buyer Questions
Semiconductor ATE System FAQ
Answers to common questions about automatic test equipment, test-cell integration and used-system configuration.
What does a semiconductor ATE system test?
It applies programmed digital, analog, power or parametric stimuli to an integrated circuit, measures the response and compares the results with test limits. The exact devices it can test depend on the installed instruments, software and DUT interface.
What is the difference between ATE and a test handler?
The ATE generates and measures electrical signals. The test handler moves packaged devices, controls their test temperature, places them into the contactor and sorts them according to the result returned by the tester.
Can one ATE system support both wafer sort and final test?
Potentially, yes. A suitable tester can connect to a wafer prober for CP testing or a handler for final test, but each stage requires different interface hardware, contact solutions, software flow and production integration.
How do I choose between a SoC tester and a specialized tester?
Start from the device functions. General SoC platforms can combine digital, analog and power resources, while memory, RF/mmWave or high-power applications may require specialized instrumentation or a dedicated platform.
Why do two used ATE systems with the same model have different prices?
Their mainframes, test heads, module quantities, revisions, software licenses, calibration status, interface hardware and included accessories may be very different. A complete configuration list is required before comparing value.
What should I send for an ATE system quotation?
Send the target device or application, preferred platform or model, test stage, required digital or analog resources, expected site count, current interface information, preferred machine condition, destination and schedule.
Start With the Device, Test Program or Target ATE Model
Share the semiconductor application, required test resources, wafer-sort or final-test stage, preferred brand or model, condition and destination. We will review the available system configuration and the missing parts of the test cell.