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The whack-a-mole approach to security is not working; we needed to change the mindset from following the attacker to following the code: the root to solving the security problem is preventing unauthorized code from attackers or other third-parties from running on applications. Protecting the integrity of an application, in real-time, is becoming a minimum requirement to ensuring the security of every enterprise. But how? When implementing real-time application monitoring policies, there are typically two major pain points: policy creation and policy maintenance and flexibility. This session will detail different approaches about how to tackle these pain points to provide the next-generation of application security. Specifically, the talk will dive into the question of how to monitor an application at runtime protecting it against fileless attacks while doing so in a practical manner. The next- generation of application runtime security needs to be deterministic, yet flexible enough to adapt the real-time behavior of the application.
Sponsorship:
Santa Clara Valley Chapter of the IEEE Information Theory Society
Santa Clara Valley Chapter of the IEEE Computer Society
Food, drink, and games will be provided.
This is one of lab64's traditional build-a-board workshops. Custom boards are welcome but *not* required; we'll have some cute kits to build so everyone leaves with a super-excellent holiday gizmo!
This is a workshop where we provide the schematic and you provide the board SHAPE. Once we have your PCB shape in the layout software, we'll help you place the components, check for manufacturability, and send it out for fabrication! In a few days you'll have your very own custom PCB ready for assembly!
This is one of lab64's traditional build-a-board workshops. Custom boards are welcome but *not* required; we'll have some cute kits to build so everyone leaves with a super-excellent Halloween gizmo!
This is a workshop where we provide the schematic and you provide the board SHAPE. We're talking pumpkins, ghosts, etc. Once we have your PCB shape in the layout software, we'll help you place the components, check for manufacturability, and send it out for fabrication! In a few days you'll have your very own custom PCB ready for assembly!
Hope to see you there!
Along with GSEE (Stanford's graduate student EE org), it is our pleasure to welcome you to our big welcome mixer (with free BBQ food!) between GSEE and Stanford's Optical Society (OSA)/SPIE chapter. Both GSEE and OSA have several fun events planned for the year so please join us and mingle with fellow classmates while enjoying some delicious BBQ.
To give us a headcount and an idea for dietary preference, please RSVP! Even if you are not planning to attend, please fill out the form especially if you want to join either the GSEE or OSA/SPIE mailing lists.
The whack-a-mole approach to security is not working; we needed to change the mindset from following the attacker to following the code: the root to solving the security problem is preventing unauthorized code from attackers or other third-parties from running on applications. Protecting the integrity of an application, in real-time, is becoming a minimum requirement to ensuring the security of every enterprise. But how? When implementing real-time application monitoring policies, there are typically two major pain points: policy creation and policy maintenance and flexibility. This session will detail different approaches about how to tackle these pain points to provide the next-generation of application security. Specifically, the talk will dive into the question of how to monitor an application at runtime protecting it against fileless attacks while doing so in a practical manner. The next- generation of application runtime security needs to be deterministic, yet flexible enough to adapt the real-time behavior of the application.
Sponsorship:
Santa Clara Valley Chapter of the IEEE Information Theory Society
Santa Clara Valley Chapter of the IEEE Computer Society
Food, drink, and games will be provided.
This is one of lab64's traditional build-a-board workshops. Custom boards are welcome but *not* required; we'll have some cute kits to build so everyone leaves with a super-excellent holiday gizmo!
This is a workshop where we provide the schematic and you provide the board SHAPE. Once we have your PCB shape in the layout software, we'll help you place the components, check for manufacturability, and send it out for fabrication! In a few days you'll have your very own custom PCB ready for assembly!
This is one of lab64's traditional build-a-board workshops. Custom boards are welcome but *not* required; we'll have some cute kits to build so everyone leaves with a super-excellent Halloween gizmo!
This is a workshop where we provide the schematic and you provide the board SHAPE. We're talking pumpkins, ghosts, etc. Once we have your PCB shape in the layout software, we'll help you place the components, check for manufacturability, and send it out for fabrication! In a few days you'll have your very own custom PCB ready for assembly!
Hope to see you there!
Along with GSEE (Stanford's graduate student EE org), it is our pleasure to welcome you to our big welcome mixer (with free BBQ food!) between GSEE and Stanford's Optical Society (OSA)/SPIE chapter. Both GSEE and OSA have several fun events planned for the year so please join us and mingle with fellow classmates while enjoying some delicious BBQ.
To give us a headcount and an idea for dietary preference, please RSVP! Even if you are not planning to attend, please fill out the form especially if you want to join either the GSEE or OSA/SPIE mailing lists.
The COVID-19 pandemic is unlikely to end until a majority of the world's population is vaccinated against the SARS-CoV-2 virus. The first authorized vaccine candidates have been based on messenger RNA molecules that promote translation of SARS-CoV-2 antigen proteins. However, these vaccines currently need to be kept frozen during shipping and storage, and have been logistically problematic for delivery to developing countries and to rural populations in developed countries. The inherent chemical instability of RNA molecules sets a fundamental limit on the stability of mRNA vaccines, but a largely unexplored strategy to reduce mRNA hydrolysis is to redesign RNAs to form protected double-stranded regions while coding for the same proteins. We developed a series of principled biophysical models for RNA degradation, and used these models to launch crowdsourced design initiatives on the massive open online laboratory Eterna, as well as to develop fully-automated design algorithms. We anticipate this work will be formative for guiding future therapeutic and vaccine development in potency and stability.
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