Masterclass Certificate in Semiconductor Device Failure Analysis for High Performance
-- ViewingNowThe Masterclass Certificate in Semiconductor Device Failure Analysis for High Performance is a comprehensive course that provides learners with critical skills in semiconductor device failure analysis. This course is essential for professionals seeking to advance their careers in the semiconductor industry, where the ability to diagnose and solve complex device failures is increasingly important.
3,887+
Students enrolled
GBP £ 140
GBP £ 202
Save 44% with our special offer
ě´ ęłźě ě ëí´
100% ě¨ëźě¸
ě´ëěë íěľ
ęłľě ę°ëĽí ě¸ěŚě
LinkedIn íëĄíě ěśę°
ěëŁęšě§ 2ę°ě
죟 2-3ěę°
ě¸ě ë ěě
ë기 ę¸°ę° ěě
ęłźě ě¸ëśěŹí
⢠Semiconductor Device Physics: Understanding the fundamental principles of semiconductor devices, including the behavior of electrons, holes, and charge carriers, and their impact on device performance.
⢠Reliability Physics: Exploring the concepts of reliability physics to understand the mechanisms of failure in semiconductor devices and the effect of various stress factors on their lifespan.
⢠Failure Analysis Techniques: Delving into various failure analysis techniques, including non-destructive and destructive methods such as optical microscopy, scanning electron microscopy (SEM), and transmission electron microscopy (TEM), and understanding their applications in semiconductor device failure analysis.
⢠Fault Isolation Techniques: Examining the different fault isolation techniques, including electrical isolation and physical isolation, to identify the root cause of semiconductor device failures.
⢠Data Analysis and Interpretation: Learning to analyze and interpret data obtained from various failure analysis and fault isolation techniques to identify trends and patterns, and to formulate conclusions regarding the cause of device failure.
⢠Advanced Characterization Techniques: Exploring advanced characterization techniques, such as X-ray diffraction (XRD) and X-ray photoelectron spectroscopy (XPS), to study the physical and chemical properties of semiconductor devices and their failure mechanisms.
⢠Design of Experiments: Understanding the principles of design of experiments (DOE) and how they can be applied to semiconductor device failure analysis to optimize testing and analysis procedures.
⢠Root Cause Analysis: Mastering the techniques of root cause analysis (RCA) to identify the underlying causes of semiconductor device failures and to develop effective solutions to prevent future failures.
⢠Failure Mechanisms in High-Performance Devices: Examining the unique failure mechanisms in high-performance devices, such as memory devices, power devices, and sensors, and understanding their impact on device reliability and performance.
⢠Case Studies: Analyzing real-world case studies to apply the knowledge and skills gained in previous units, and to develop a comprehensive understanding of semiconductor device failure analysis for high-performance applications.
ę˛˝ë Ľ 경ëĄ
ě í ěęą´
- 죟ě ě ëí 기본 ě´í´
- ěě´ ě¸ě´ ëĽěë
- ěť´í¨í° ë° ě¸í°ëˇ ě ꡟ
- 기본 ěť´í¨í° 기ě
- ęłźě ěëŁě ëí íě
ěŹě ęłľě ěę˛Šě´ íěíě§ ěěľëë¤. ě ꡟěąě ěí´ ě¤ęłë ęłźě .
ęłźě ěí
ě´ ęłźě ě ę˛˝ë Ľ ę°ë°ě ěí ě¤ěŠě ě¸ ě§ěęłź 기ě ě ě ęłľíŠëë¤. ꡸ę˛ě:
- ě¸ě ë°ě 기ę´ě ěí´ ě¸ěŚëě§ ěě
- ęśíě´ ěë 기ę´ě ěí´ ęˇě ëě§ ěě
- ęłľě ě겊ě ëł´ěě
ęłźě ě ěąęłľě ěźëĄ ěëŁí늴 ěëŁ ě¸ěŚě뼟 ë°ę˛ ëŠëë¤.
ě ěŹëë¤ě´ ę˛˝ë Ľě ěí´ ě°ëŚŹëĽź ě ííëę°
댏롰 ëĄëŠ ě¤...
ě죟 돝ë ě§ëŹ¸
ě˝ě¤ ěę°ëŁ
- 죟 3-4ěę°
- 쥰기 ě¸ěŚě ë°°ěĄ
- ę°ë°Ší ëąëĄ - ě¸ě ë ě§ ěě
- 죟 2-3ěę°
- ě 기 ě¸ěŚě ë°°ěĄ
- ę°ë°Ší ëąëĄ - ě¸ě ë ě§ ěě
- ě 체 ě˝ě¤ ě ꡟ
- ëě§í¸ ě¸ěŚě
- ě˝ě¤ ěëŁ
ęłźě ě ëł´ ë°ę¸°
íěŹëĄ ě§ëś
ě´ ęłźě ě ëšěŠě ě§ëśí기 ěí´ íěŹëĽź ěí ě˛ęľŹě뼟 ěě˛íě¸ě.
ě˛ęľŹěëĄ ę˛°ě ę˛˝ë Ľ ě¸ěŚě íë
