Plasma decapsulation

PLASMAETCH PE-1000

Microwave-induced plasma processing for dry semiconductor-package decapsulation.

PlasmaEtch PE-1000 is designed for dry removal of semiconductor package encapsulant using microwave-induced plasma under vacuum. The system provides an alternative process route for packages and internal structures for which wet chemical decapsulation may not be appropriate.

Package suitability, mold-compound composition, wire and metallization materials, sample arrangement, process-gas configuration and required exposure area must be reviewed by Nisene engineering for each application.

View all decapsulation methods

Dry decapsulation using microwave-induced plasma

PlasmaEtch PE-1000 uses microwave-induced plasma processing under vacuum to remove selected package encapsulant and expose semiconductor dies and internal structures for examination.

The dry process provides an alternative to wet chemical decapsulation and may be evaluated for packages, wire materials or analysis objectives where chemical exposure is undesirable or unsuitable.

Potential purposes

  • Semiconductor failure analysis
  • Die and bond-wire exposure
  • Construction analysis
  • Counterfeit-component investigation
  • Reliability and qualification analysis
  • Package-specific plasma-process development
  • Evaluation of sensitive internal structures
  • Dry removal of selected mold compounds
Potential applications, package compatibility, wire-material compatibility and process conditions remain subject to Nisene engineering review.

When PlasmaEtch may be the appropriate process route

Dry package decapsulation

Applications for which Nisene engineering determines that a plasma-based dry process should be evaluated instead of wet chemical decapsulation.

Sensitive internal structures

Applications involving wire bonds, metallization or other internal structures requiring controlled material-compatibility review.

Process-residue considerations

Applications where the laboratory seeks to evaluate a dry process and its post-process cleaning requirements.

Package-specific process development

Applications requiring controlled development of plasma conditions for a particular mold compound, package construction and exposure objective.

Final process selection depends on package construction, mold-compound composition, filler content, wire and metallization materials, die location, sample arrangement and analysis objective.

Designed for controlled plasma-process development

Capability descriptions only. No operating values are published in this section.

Microwave-induced plasma generation

The system uses microwave energy to generate plasma for controlled package-encapsulant removal.

Vacuum process environment

Processing takes place within a controlled vacuum chamber configuration.

Controlled process-gas delivery

Configured gas-delivery controls support development of approved package-specific plasma processes.

Process-pressure control

Vacuum and process-pressure settings form part of the approved plasma recipe.

Process-time control

User-defined processing stages support adjustment for package and exposure requirements.

Recipe management

Stored recipes support recall of approved laboratory process parameters.

Sample-platform configuration

The process platform supports sample positioning according to the approved fixture and application arrangement.

Operator interface

A dedicated interface provides access to process settings, recipe selection, vacuum status and system operating information.

Controlled plasma processing under vacuum

Microwave-induced plasma provides energy for controlled removal of selected organic package material within a vacuum process environment.

The applicable plasma conditions depend on mold-compound composition, filler content, exposed metals, wire materials, package geometry and the required end point.

This page does not provide a plasma recipe. Process-gas selection, gas ratios, gas-flow settings, microwave-power settings, chamber pressure, processing time and endpoint criteria must be established only through approved Nisene documentation, training and applications-engineering support.

Application-specific process-gas configuration

Configured gas delivery

The process-gas architecture supplied with the system depends on the current PE-1000 configuration and destination requirements.

Recipe-controlled processing

Approved process-gas parameters may form part of a package-specific laboratory recipe.

Material-specific review

Gas selection and process conditions depend on mold compound, filler composition, exposed materials and analysis objectives.

Facility and regulatory review

Gas supply, exhaust, storage, monitoring and regulatory requirements must be confirmed for the supplied configuration and installation site.

Process-gas architecture, approved gas compatibility and facility requirements must be confirmed for the quoted PlasmaEtch PE-1000 configuration and installation.

Sample positioning for controlled processing

Single-sample processing

Samples may be positioned individually according to the approved application arrangement.

Multiple-sample arrangement

The platform may support more than one sample, subject to chamber configuration, sample dimensions and engineering review.

Defined sample spacing

Sample position and spacing must be established for uniform and controlled processing.

Package-specific holders

Approved holders or positioning components support repeatable sample placement.

Sample quantity, platform dimensions, usable process area and uniformity is confirmed for the supplied configuration.

From package review to examination

Step 1

Review the package

Identify package construction, dimensions, mold compound, filler content, die location, wire and metallization materials and required exposure area.

Step 2

Confirm plasma suitability

Nisene applications engineering reviews whether microwave-induced plasma decapsulation should be evaluated.

Step 3

Select the sample arrangement

Select the approved holder, platform position, sample spacing and chamber arrangement.

Step 4

Confirm facility and gas configuration

Confirm the supplied process-gas, vacuum, exhaust, electrical and site-safety requirements.

Step 5

Select an approved process

Recall or establish approved plasma, pressure, gas-delivery, timing and endpoint parameters.

Step 6

Run the controlled sequence

Process the sample according to the equipment manual, approved laboratory procedures and applicable safety requirements.

Step 7

Inspect the result

Complete the approved post-process and inspection procedure before optical, electrical or other failure-analysis examination.

Microwave-induced plasma decapsulation, vacuum operation and process-gas handling must be carried out only by trained personnel in an appropriately equipped laboratory using approved gas systems, exhaust arrangements, fixtures, personal protective equipment, safety documentation and site procedures.

Technical specifications

Published values from the current PE-1000 product literature.

PlasmaEtch PE-1000 published configuration
Specification PlasmaEtch PE-1000
Process type Microwave-induced plasma decapsulation under vacuum
Plasma-generation method Microwave-induced plasma
Process environment Vacuum plasma
Microwave frequency 2.4 GHz
Microwave power Up to 1000 W
Reaction gases O2 and H2
Gas supply Integrated gas generator; no gas tank required
Stage size 70 mm diameter
Sample processing Multiple samples may be processed in one cycle
Electrical supply 220 V, 2500 W, single phase
System dimensions 128 × 84 × 170 cm

Select the appropriate package-opening method

Chemical decapsulation

JetEtch configurations

JetEtch configurations use controlled chemical processing for defined-area package decapsulation.

Explore chemical decapsulation
Plasma decapsulation

PlasmaEtch PE-1000

PlasmaEtch PE-1000 uses microwave-induced plasma under vacuum for dry package decapsulation.

You are viewing PlasmaEtch PE-1000
Laser decapsulation

LaserEtch LE-1064

LaserEtch LE-1064 removes selected bulk encapsulant by laser ablation and may be evaluated for pre-cavitation before another decapsulation method, subject to Nisene engineering review.

Explore LaserEtch LE-1064
Mechanical opening

Mechanical package opening

Mechanical tools remove selected lids or caps from compatible hermetic packages.

Explore mechanical opening
Method selection must be confirmed with Nisene applications engineering.

Application-specific compatibility review

Package families

BGA QFN / DFN QFP / TQFP SOIC / SOP DIP PLCC CSP / WLCSP Multi-die packages Stacked packages Custom packages

Wire and internal materials

Copper wire Palladium-coated copper Gold wire Aluminum wire Silver wire Mixed or unknown metallurgy Sensitive exposed metallization Material composition unknown

Mold-compound categories

Standard epoxy mold compound High-filler mold compound Composition unknown Custom or non-standard encapsulant

Compatibility depends on package construction, mold-compound chemistry, filler content, dimensions, die location, wire and metallization materials, sample arrangement and required exposure area.

No package, wire material, metallization or mold compound should be represented as supported until reviewed by Nisene applications engineering.

Prepare the laboratory

Plan the installation around the published PE-1000 configuration and applicable local safety requirements.

Electrical supply

220 V, 2500 W, single phase.

Equipment space

Allow for the published 128 × 84 × 170 cm system dimensions, operating clearance and service access.

Process gases

The published configuration uses O2 and H2 with an integrated gas generator, avoiding stored process-gas tanks.

Sample stage

The 70 mm-diameter stage supports processing of multiple samples in one cycle.

Vacuum operation

Provide suitable placement and service access for the vacuum-plasma system.

Local safety requirements

Installation remains subject to applicable electrical, ventilation, laboratory and workplace-safety requirements.

Final site preparation must follow the supplied installation documentation and applicable local regulations.

Request facility requirements

Safety is part of the installation

Installation and operating responsibility

PlasmaEtch PE-1000 must be installed and operated only in an appropriately equipped laboratory by trained personnel. Customers are responsible for site-specific risk assessment, electrical safety, microwave-system safety, vacuum-system safety, approved process gases, gas monitoring, exhaust, ventilation, personal protective equipment and compliance with applicable regulations.

Applicable compliance, declaration, gas-safety and installation documentation will be identified for the quoted system and destination and supplied where applicable.

Support throughout the equipment lifecycle

Applications engineering

Package review, material review, sample-arrangement selection and plasma-process development support for unfamiliar or challenging applications.

Installation and training

Available in accordance with the quotation, system configuration and applicable territory.

Service and repair

Technical diagnosis, repair and maintenance for supported plasma, vacuum and gas-control components.

Spare parts, holders and process components

Replacement components, sample holders, vacuum components, gas-control components and consumables subject to current availability.

PlasmaEtch PE-1000 resources

Current document revisions are available on request.

Discuss your PlasmaEtch application

Tell us about the package, mold compound, wire and metallization materials, required exposure area and analysis objective. Nisene will review whether PlasmaEtch PE-1000 is appropriate and advise on system configuration, sample arrangement and the evaluation route.

Nisene Technology Group
Based in Watsonville, California, USA.
417A Salinas Road, Watsonville, CA 95076, USA
sales@nisene.com
service@nisene.com
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Send an enquiry

Tell us the system, the package type and what you need to achieve, and our applications team will respond.

Email sales@nisene.com Service and RMA

Nisene Technology Group, 417A Salinas Road, Watsonville, CA 95076, USA