Albert Liu's guest appearances

Albert Liu

Finding Genius Podcast

FutureTech Podcast

Thesis Thursday

Agency X

Weak & Foolish Movie Podcast

The Age of AI Podcast

Jonathan Parker

Ben Bocchicchio

Allison Rosen

Chris Winter

Zack Abbott

Robb Wolf

Michaela Reagan

Katherine Lewis

Kim West

Gene Monterastelli

Evan Jones

Seema Khosla

Kay O’Donnell

Eric Weiner

Panna Sharma

OwlTail

In this episode, John and Albert have a chat about paid loyalty programs, how eCommerce brands can get the most out of their tech stack, and when brands should incorporate a tool like Dynamic Yield. Check out the highlights and episode transcription here.  - We'd like to thank Gorgias for sponsoring this podcast. They combine all your different communication channels and messages (email, SMS, social media, livechat, phone, etc.) into one platform. Learn how to level up your customer support and get a month free by speaking to their team here: https://gorgias.grsm.io/avexoffer6592 - This podcast is hosted by Avex Designs: a design, development, and growth e-commerce agency specializing in Shopify Plus. - Connect With Us: Albert Liu, John Surdakowski

In this episode, John and Albert have a chat about paid loyalty programs, how eCommerce brands can get the most out of their tech stack, and when brands should incorporate a tool like Dynamic Yield. Check out the highlights and episode transcription <a href="https://avexdesigns.com/podcast/how-personalization-improves-customer-experience-with-albert-liu-channel" rel="nofollow" target="_blank">here</a>.  - We'd like to thank Gorgias for sponsoring this podcast. They combine all your different communication channels and messages (email, SMS, social media, livechat, phone, etc.) into one platform. Learn how to level up your customer support and get a month free by speaking to their team here:<a href="https://gorgias.grsm.io/avexoffer6592" rel="ugc noopener noreferrer nofollow" target="_blank"> https://gorgias.grsm.io/avexoffer6592</a> - This podcast is hosted by <a href="https://avexdesigns.com/" rel="ugc noopener noreferrer nofollow" target="_blank">Avex Designs</a>: a design, development, and growth e-commerce agency specializing in Shopify Plus. - Connect With Us: <a href="https://www.linkedin.com/in/albertcliu79/" rel="nofollow" target="_blank">Albert Liu</a>, <a href="https://linkedin.com/jsurda" rel="ugc noopener noreferrer nofollow" target="_blank">John Surdakowski</a>

How Personalization Improves Customer Experience with Albert Liu, Channel Director at Dynamic Yield

Unlike robotic systems made even partially from organic materials, entirely artificial electronic systems have use cases in both the human body and a variety of other environments, such as tiny crevices in the earth, chemical reactors, and oil pipelines. In order to reach these places, however, these systems must be tiny—the size of red blood cells, which are not more than ten microns in diameter. Albert Liu is a presidential fellow working in Michael Strano’s lab in the MIT Department of Engineering, and he joins the podcast to discuss their most recent accomplishments: the creation of an entirely artificial robotic system the size of a human red blood cell, and recent publications detailing how these systems can be employed in aerosolizable electronics and soil matrices. He also discusses the most difficult aspects of creating these systems, the insight he’s gained as a graduate student working in this field, the revolutionary potential of these systems in medicine and industry, and the tradeoffs between biological and artificial robotics. Interested in learning more? Stay current on the latest research by visiting https://srg.mit.edu/, and tune in to hear the full conversation. Mass producing colloidal electronics (with a video): http://news.mit.edu/2018/how-mass-produce-cell-sized-robots-1023  Strano website: https://srg.mit.edu/  Albert website: https://albert-t-liu.com/  Nature Nano reference: https://www.nature.com/articles/s41565-018-0194-z  Nature Materials reference: https://www.nature.com/articles/s41563-018-0197-z

Unlike robotic systems made even partially from organic materials, entirely artificial electronic systems have use cases in both the human body and a variety of other environments, such as tiny crevices in the earth, chemical reactors, and oil pipelines. In order to reach these places, however, these systems must be tiny—the size of red blood cells, which are not more than ten microns in diameter. Albert Liu is a presidential fellow working in Michael Strano’s lab in the MIT Department of Engineering, and he joins the podcast to discuss their most recent accomplishments: the creation of an entirely artificial robotic system the size of a human red blood cell, and recent publications detailing how these systems can be employed in aerosolizable electronics and soil matrices. He also discusses the most difficult aspects of creating these systems, the insight he’s gained as a graduate student working in this field, the revolutionary potential of these systems in medicine and industry, and the tradeoffs between biological and artificial robotics. Interested in learning more? Stay current on the latest research by visiting <a href="https://srg.mit.edu/" rel="nofollow" target="_blank">https://srg.mit.edu/</a>, and tune in to hear the full conversation. Mass producing colloidal electronics (with a video): <a href="http://news.mit.edu/2018/how-mass-produce-cell-sized-robots-1023" rel="nofollow" target="_blank">http://news.mit.edu/2018/how-mass-produce-cell-sized-robots-1023</a> Strano website: <a href="https://srg.mit.edu/" rel="nofollow" target="_blank">https://srg.mit.edu/</a> Albert website: <a href="https://albert-t-liu.com/" rel="nofollow" target="_blank">https://albert-t-liu.com/</a> Nature Nano reference: <a href="https://www.nature.com/articles/s41565-018-0194-z" rel="nofollow" target="_blank">https://www.nature.com/articles/s41565-018-0194-z</a> Nature Materials reference: <a href="https://www.nature.com/articles/s41563-018-0197-z" rel="nofollow" target="_blank">https://www.nature.com/articles/s41563-018-0197-z</a>

Cell Sized Robots with Applications in the Human Body and a Variety of Industries Albert Liu MIT Department of Engineering

With the creation of an entirely inorganic robotic system about the size of a red blood cell—just seven to ten microns in diameter—the team in the lab of Michael Strano at the MIT Department of Engineering is reaching previously inaccessible locations in the human body and various other environments found within and useful to industry, such as chemical reactors, oil pipelines, and soil matrices. In 2018, they published landmark papers detailing two prototypes of these tiny robotic systems, one which was used as a component of aerosolizable electronics in which they were nebulized and sent through a pipe, light enough to travel along with the air flow. The robots were able to detect different chemicals and respond to light within the pipes, and then be gathered for the collection of data. The second prototype was launched into a body of water where it was capable of detecting various chemicals and responding to magnetic fields, and therefore able to detect nutrients in soil matrices that were good or bad for plant growth. Albert Liu is a presidential fellow and member of Michael Strano’s lab at MIT, and he has an extensive laboratory background. He brings a wealth of knowledge to the conversation, explaining the ins and outs of this new technology, the challenges that come along with creating and powering such small systems, and the tradeoffs between artificial and biological systems. Press play for all the details, and learn more by visiting https://srg.mit.edu/. Mass producing colloidal electronics (with a video): http://news.mit.edu/2018/how-mass-produce-cell-sized-robots-1023 Strano website: https://srg.mit.edu/   Albert website: https://albert-t-liu.com/   Nature Nano reference: https://www.nature.com/articles/s41565-018-0194-z Nature Materials reference: https://www.nature.com/articles/s41563-018-0197-z

With the creation of an entirely inorganic robotic system about the size of a red blood cell—just seven to ten microns in diameter—the team in the lab of Michael Strano at the MIT Department of Engineering is reaching previously inaccessible locations in the human body and various other environments found within and useful to industry, such as chemical reactors, oil pipelines, and soil matrices. In 2018, they published landmark papers detailing two prototypes of these tiny robotic systems, one which was used as a component of aerosolizable electronics in which they were nebulized and sent through a pipe, light enough to travel along with the air flow. The robots were able to detect different chemicals and respond to light within the pipes, and then be gathered for the collection of data. The second prototype was launched into a body of water where it was capable of detecting various chemicals and responding to magnetic fields, and therefore able to detect nutrients in soil matrices that were good or bad for plant growth. Albert Liu is a presidential fellow and member of Michael Strano’s lab at MIT, and he has an extensive laboratory background. He brings a wealth of knowledge to the conversation, explaining the ins and outs of this new technology, the challenges that come along with creating and powering such small systems, and the tradeoffs between artificial and biological systems. Press play for all the details, and learn more by visiting <a href="https://srg.mit.edu/" rel="nofollow" target="_blank">https://srg.mit.edu/</a>. Mass producing colloidal electronics (with a video): <a href="http://news.mit.edu/2018/how-mass-produce-cell-sized-robots-1023" rel="nofollow" target="_blank">http://news.mit.edu/2018/how-mass-produce-cell-sized-robots-1023</a> Strano website: <a href="https://srg.mit.edu/" rel="nofollow" target="_blank">https://srg.mit.edu/</a> Albert website: <a href="https://albert-t-liu.com/" rel="nofollow" target="_blank">https://albert-t-liu.com/</a> Nature Nano reference: <a href="https://www.nature.com/articles/s41565-018-0194-z" rel="nofollow" target="_blank">https://www.nature.com/articles/s41565-018-0194-z</a> Nature Materials reference: <a href="https://www.nature.com/articles/s41563-018-0197-z" rel="nofollow" target="_blank">https://www.nature.com/articles/s41563-018-0197-z</a>

Employing Cell-Sized Robots in Aerosolizable Electronics and Chemical Detection—Albert Liu—MIT Department of Engineering

Thesis Thursday- Albert Liu My name is Albert Liu; I’m currently a senior studying Molecular and Cellular Biology at the University of Arizona. I work in the lab of Dr. Carol Dieckmann, where we are investigating the function of metabolic pathway proteins in yeast mitochondria, and the possible implications this may have on rare human genetic disease. My goal for the near future is to attend graduate school and pursue a Ph.D. in molecular biology, with an emphasis on genetics or cancer biology. Outside of the lab, I spend my free time reading about timepieces, collecting pens and watching bad horror movies. The University of Arizona’s Undergraduate Biology Research Program is partnering with KXCI 91.3 to produce “Thesis Thursday,” a weekly segment featuring student researchers talking about their undergraduate thesis projects, or research projects while working with University professors. Students describe their research, their overall goals and career interests and where they think their research will lead. They also get a chance to share their music and interests that motivate them. Broadcast three times every Thursday with a new student each week. Thursdays: 9:55 AM, 11:55 AM, and 2:55 PM Created by Cathy Rivers, produced by Bridgitte Thum.

Thesis Thursday- Albert Liu My name is Albert Liu; I’m currently a senior studying Molecular and Cellular Biology at the University of Arizona. I work in the lab of Dr. Carol Dieckmann, where we are investigating the function of metabolic pathway proteins in yeast mitochondria, and the possible implications this may have on rare human genetic disease. My goal for the near future is to attend graduate school and pursue a Ph.D. in molecular biology, with an emphasis on genetics or cancer biology. Outside of the lab, I spend my free time reading about timepieces, collecting pens and watching bad horror movies. The University of Arizona’s <a href="https://ubrp.arizona.edu/" rel="nofollow" target="_blank">Undergraduate Biology Research Program</a> is partnering with <a href="https://kxci.org/" rel="nofollow" target="_blank">KXCI 91.3</a> to produce “Thesis Thursday,” a weekly segment featuring student researchers talking about their undergraduate thesis projects, or research projects while working with University professors. Students describe their research, their overall goals and career interests and where they think their research will lead. They also get a chance to share their music and interests that motivate them. Broadcast three times every Thursday with a new student each week. Thursdays: 9:55 AM, 11:55 AM, and 2:55 PM Created by Cathy Rivers, produced by Bridgitte Thum.