설명
설명 없음환경 설정
환경 설정 없음OEM 모델 설명
The CAMECA IMS-6f is an ultra-high vacuum (UHV) system designed for secondary ion mass spectrometry (SIMS) analysis. Equipped with a magnetic sector analyzer, it offers exceptional mass resolving power, with a minimum m/Dm of 25000 (10% definition). The system features a duoplasmatron source that can produce O2+ or O- ions, and a microbeam source for Cs+ ions, providing premium beam stability and ultra-fine minimum beam size (300nm for O2+ and 200nm for Cs+). Key capabilities of the IMS-6f include low detection limits and high resolving power in depth profiling, ultra-shallow depth profiling, 3D ion imaging, and excellent charge neutralization, making it an advanced tool for studying material surfaces and interfaces at the nanoscale.문서
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CAMECA
IMS-6f
검증됨
카테고리
Spectrometer / SIMS
마지막 검증일: 30일 이상 전
주요 품목 세부 정보
조건:
Used
작동 상태:
알 수 없음
제품 ID:
117154
웨이퍼 사이즈:
알 수 없음
빈티지:
알 수 없음
Have Additional Questions?
Logistics Support
Available
Money Back Guarantee
Available
Transaction Insured by Moov
Available
Refurbishment Services
Available
CAMECA
IMS-6f
카테고리
Spectrometer / SIMS
마지막 검증일: 30일 이상 전
주요 품목 세부 정보
조건:
Used
작동 상태:
알 수 없음
제품 ID:
117154
웨이퍼 사이즈:
알 수 없음
빈티지:
알 수 없음
Have Additional Questions?
Logistics Support
Available
Money Back Guarantee
Available
Transaction Insured by Moov
Available
Refurbishment Services
Available
설명
설명 없음환경 설정
환경 설정 없음OEM 모델 설명
The CAMECA IMS-6f is an ultra-high vacuum (UHV) system designed for secondary ion mass spectrometry (SIMS) analysis. Equipped with a magnetic sector analyzer, it offers exceptional mass resolving power, with a minimum m/Dm of 25000 (10% definition). The system features a duoplasmatron source that can produce O2+ or O- ions, and a microbeam source for Cs+ ions, providing premium beam stability and ultra-fine minimum beam size (300nm for O2+ and 200nm for Cs+). Key capabilities of the IMS-6f include low detection limits and high resolving power in depth profiling, ultra-shallow depth profiling, 3D ion imaging, and excellent charge neutralization, making it an advanced tool for studying material surfaces and interfaces at the nanoscale.문서
문서 없음