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DTSTART;TZID=Europe/Paris:20250401T140000
DTEND;TZID=Europe/Paris:20250401T153000
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CREATED:20250320T120824
DTSTAMP:20250320T120824
SUMMARY:ET03 Lifecycle Management of Emerging Memories: Why and How?
URL;VALUE=URI:https://date25.date-conference.com/programme#ET03
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DESCRIPTION:Reminder
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DESCRIPTION:Get the latest session information at 
	https://date25.date-conference.com/programme#ET03\n\n\nAbstract:\n	\n	Emerging 
	memory technologies, such as Resistive RAM (ReRAM), Phase-Change Memory 
	(PCM), Spin-Transfer Torque Magnetic Memory (STT-MRAM), and Ferroelectric 
	FET (FeFET), receive a lot of interest both from academia and industry 
	thanks to their attractive properties. These technologies can implement 
	dense, fast, and non-volatile memories that can be used to efficiently 
	store date as well as implement AI circuits. However, mass production is 
	still limited, because these technologies suffer from quality and 
	reliability issues that need to be addressed after manufacturing and 
	during lifetime. These technologies are susceptible to new manufacturing 
	defects due to new materials and structures as well as endurance problems. 
	This tutorial presents a holistic view on the root causes of quality and 
	reliability issues, their impact on the circuit’s behavior, and possible 
	solutions to properly address these issues guaranteeing the required 
	quality and reliability level. Finally, this tutorial allows attendees to 
	understand the lifecycle management choices available to ensure 
	high-quality and -reliable emerging memories.\n	\n	Speakers:\n	\n	Leticia 
	Maria Bolzani Poehls, IHP – Leibniz Institute for High Performance 
	Microelectronics - Germany\n	\n	Moritz Fieback, Delft University of 
	Technology, The Netherlands\n	\n	Target audience:\n	\n	This tutorial 
	intends to be addressed to academia (from PhD students to postdocs) and 
	professionals from industry that would like to know more about how to 
	guarantee the quality of emerging memories and consequently their adoption 
	in real applications. Around 40 participants are expected.\n	\n	Learning 
	objectives:\n	\n	-  Describe why emerging memories need lifecycle 
	management and how this holistic approach fits in the memories’ design 
	process\n	-  Present and compare the lifecycle management of two different 
	types of emerging memories including their quality and reliability issues 
	and possible solutions\n	-  Summarize the key challenges that are involved 
	in future lifecycle management for emerging memories\n	\n	Required 
	background:\n	\n	-  Basic understanding of emerging memories and some 
	general understanding of the definitions relate to the theory of test, and 
	reliability.\n	\n	Detailed program:\n	\n	The proposed tutorial is based in 
	the following plan:\n	\n	-  Introduction: Why we need emerging 
	memories?\n	-  Background: Why we need to adopt a lifecycle management 
	approach for emerging memories?\n	-  Case study 1: Memory type, RRAMs\n	-  
	Case study 2: Memory type, STT-MRAMs\n	-  Comparison highlighting 
	overlapping and differentiating features of two technologies\n	-  
	Conclusion & Future
X-ALT-DESC;FMTTYPE=text/html:<!DOCTYPE HTML PUBLIC "-//W3C//DTD HTML 3.2//EN"><HTML><HEAD><META 
	NAME="Generator" CONTENT="MS Exchange Server version 
	16.0.17231.20290"><TITLE></TITLE></HEAD><BODY><p>Get the latest session 
	information at <a 
	href="https://date25.date-conference.com/programme#ET03">https://date25.date-conference.com/programme#ET03</a></p><h3> 
	   Abstract:</h3><p>    Emerging memory technologies, such as Resistive 
	RAM (ReRAM), Phase-Change Memory (PCM), Spin-Transfer Torque Magnetic 
	Memory (STT-MRAM), and Ferroelectric FET (FeFET), receive a lot of 
	interest both from academia and industry thanks to their attractive 
	properties. These technologies can implement dense, fast, and non-volatile 
	memories that can be used to efficiently store date as well as implement 
	AI circuits. However, mass production is still limited, because these 
	technologies suffer from quality and reliability issues that need to be 
	addressed after manufacturing and during lifetime. These technologies are 
	susceptible to new manufacturing defects due to new materials and 
	structures as well as endurance problems. This tutorial presents a 
	holistic view on the root causes of quality and reliability issues, their 
	impact on the circuit’s behavior, and possible solutions to properly 
	address these issues guaranteeing the required quality and reliability 
	level. Finally, this tutorial allows attendees to understand the lifecycle 
	management choices available to ensure high-quality and -reliable emerging 
	memories.</p><h3>    Speakers:</h3><p>    Leticia Maria Bolzani Poehls, 
	IHP – Leibniz Institute for High Performance Microelectronics - 
	Germany</p><p>    Moritz Fieback, Delft University of Technology, The 
	Netherlands</p><h3>    Target audience:</h3><p>    This tutorial intends 
	to be addressed to academia (from PhD students to postdocs) and 
	professionals from industry that would like to know more about how to 
	guarantee the quality of emerging memories and consequently their adoption 
	in real applications. Around 40 participants are expected.</p><h3>    
	Learning objectives:</h3><ul>    <li>        Describe why emerging 
	memories need lifecycle management and how this holistic approach fits in 
	the memories’ design process    </li>    <li>        Present and compare 
	the lifecycle management of two different types of emerging memories 
	including their quality and reliability issues and possible solutions    
	</li>    <li>        Summarize the key challenges that are involved in 
	future lifecycle management for emerging memories    </li></ul><h3>    
	Required background:</h3><ul>    <li>        Basic understanding of 
	emerging memories and some general understanding of the definitions relate 
	to the theory of test, and reliability.    </li></ul><h3>    Detailed 
	program:</h3><p>    The proposed tutorial is based in the following 
	plan:</p><ul>    <li>        Introduction: Why we need emerging memories?  
	  </li>    <li>        Background: Why we need to adopt a lifecycle 
	management approach for emerging memories?    </li>    <li>        Case 
	study 1: Memory type, RRAMs    </li>    <li>        Case study 2: Memory 
	type, STT-MRAMs    </li>    <li>        Comparison highlighting 
	overlapping and differentiating features of two technologies    </li>    
	<li>        Conclusion &amp; Future    </li></ul></BODY></HTML>
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