Podcasts about series exploring ethics show id

Artificial intelligence (AI) is a branch of engineering that has traditionally ignored brains, but recent advances in biologically-inspired deep learning have dramatically changed AI and made it possible to solve difficult problems in vision, planning and natural language. If you talk to Alexa or use Google Translate, you have experienced deep learning in action. This new technology opens a Pandoras box of problems that we must confront regarding privacy, bias and jobs. Terry Sejnowski, PhD, explains how his research strives understand the computational resources of brains and to build linking principles from brain to behavior using computational models. Series: "Exploring Ethics" [Show ID: 35462]

Artificial intelligence (AI) is a branch of engineering that has traditionally ignored brains, but recent advances in biologically-inspired deep learning have dramatically changed AI and made it possible to solve difficult problems in vision, planning and natural language. If you talk to Alexa or use Google Translate, you have experienced deep learning in action. This new technology opens a Pandoras box of problems that we must confront regarding privacy, bias and jobs. Terry Sejnowski, PhD, explains how his research strives understand the computational resources of brains and to build linking principles from brain to behavior using computational models. Series: "Exploring Ethics" [Show ID: 35462]

Artificial intelligence (AI) is a branch of engineering that has traditionally ignored brains, but recent advances in biologically-inspired deep learning have dramatically changed AI and made it possible to solve difficult problems in vision, planning and natural language. If you talk to Alexa or use Google Translate, you have experienced deep learning in action. This new technology opens a Pandoras box of problems that we must confront regarding privacy, bias and jobs. Terry Sejnowski, PhD, explains how his research strives understand the computational resources of brains and to build linking principles from brain to behavior using computational models. Series: "Exploring Ethics" [Show ID: 35462]

Artificial intelligence (AI) is a branch of engineering that has traditionally ignored brains, but recent advances in biologically-inspired deep learning have dramatically changed AI and made it possible to solve difficult problems in vision, planning and natural language. If you talk to Alexa or use Google Translate, you have experienced deep learning in action. This new technology opens a Pandoras box of problems that we must confront regarding privacy, bias and jobs. Terry Sejnowski, PhD, explains how his research strives understand the computational resources of brains and to build linking principles from brain to behavior using computational models. Series: "Exploring Ethics" [Show ID: 35462]

Artificial intelligence (AI) is a branch of engineering that has traditionally ignored brains, but recent advances in biologically-inspired deep learning have dramatically changed AI and made it possible to solve difficult problems in vision, planning and natural language. If you talk to Alexa or use Google Translate, you have experienced deep learning in action. This new technology opens a Pandoras box of problems that we must confront regarding privacy, bias and jobs. Terry Sejnowski, PhD, explains how his research strives understand the computational resources of brains and to build linking principles from brain to behavior using computational models. Series: "Exploring Ethics" [Show ID: 35462]

Artificial intelligence (AI) is a branch of engineering that has traditionally ignored brains, but recent advances in biologically-inspired deep learning have dramatically changed AI and made it possible to solve difficult problems in vision, planning and natural language. If you talk to Alexa or use Google Translate, you have experienced deep learning in action. This new technology opens a Pandoras box of problems that we must confront regarding privacy, bias and jobs. Terry Sejnowski, PhD, explains how his research strives understand the computational resources of brains and to build linking principles from brain to behavior using computational models. Series: "Exploring Ethics" [Show ID: 35462]

Artificial intelligence (AI) is a branch of engineering that has traditionally ignored brains, but recent advances in biologically-inspired deep learning have dramatically changed AI and made it possible to solve difficult problems in vision, planning and natural language. If you talk to Alexa or use Google Translate, you have experienced deep learning in action. This new technology opens a Pandoras box of problems that we must confront regarding privacy, bias and jobs. Terry Sejnowski, PhD, explains how his research strives understand the computational resources of brains and to build linking principles from brain to behavior using computational models. Series: "Exploring Ethics" [Show ID: 35462]

Artificial intelligence (AI) is a branch of engineering that has traditionally ignored brains, but recent advances in biologically-inspired deep learning have dramatically changed AI and made it possible to solve difficult problems in vision, planning and natural language. If you talk to Alexa or use Google Translate, you have experienced deep learning in action. This new technology opens a Pandoras box of problems that we must confront regarding privacy, bias and jobs. Terry Sejnowski, PhD, explains how his research strives understand the computational resources of brains and to build linking principles from brain to behavior using computational models. Series: "Exploring Ethics" [Show ID: 35462]

Social media and big data can have important practical applications in public health, disaster management, transportation, and urban planning. Data scientists are using machine learning algorithms, computer vision, and natural language processing to collect and analyze social media data (such as Facebook and YouTube) and environmental sensor/camera data to study human communications and movements. These big data technologies can be powerful tools to predict short-term future events, such as flu outbreaks, severe air pollution, traffic congestion, the weather, and patterns of disaster evacuation. At the same time, these technologies monitor users’ digital footprints, opinions and geolocations. Ming-Hsiang Tsou, PhD discusses the challenges in social media analytics, including data noise and biases, fake news, and data privacy. Series: "Exploring Ethics" [Show ID: 35460]

Social media and big data can have important practical applications in public health, disaster management, transportation, and urban planning. Data scientists are using machine learning algorithms, computer vision, and natural language processing to collect and analyze social media data (such as Facebook and YouTube) and environmental sensor/camera data to study human communications and movements. These big data technologies can be powerful tools to predict short-term future events, such as flu outbreaks, severe air pollution, traffic congestion, the weather, and patterns of disaster evacuation. At the same time, these technologies monitor users’ digital footprints, opinions and geolocations. Ming-Hsiang Tsou, PhD discusses the challenges in social media analytics, including data noise and biases, fake news, and data privacy. Series: "Exploring Ethics" [Show ID: 35460]

Social media and big data can have important practical applications in public health, disaster management, transportation, and urban planning. Data scientists are using machine learning algorithms, computer vision, and natural language processing to collect and analyze social media data (such as Facebook and YouTube) and environmental sensor/camera data to study human communications and movements. These big data technologies can be powerful tools to predict short-term future events, such as flu outbreaks, severe air pollution, traffic congestion, the weather, and patterns of disaster evacuation. At the same time, these technologies monitor users’ digital footprints, opinions and geolocations. Ming-Hsiang Tsou, PhD discusses the challenges in social media analytics, including data noise and biases, fake news, and data privacy. Series: "Exploring Ethics" [Show ID: 35460]

Social media and big data can have important practical applications in public health, disaster management, transportation, and urban planning. Data scientists are using machine learning algorithms, computer vision, and natural language processing to collect and analyze social media data (such as Facebook and YouTube) and environmental sensor/camera data to study human communications and movements. These big data technologies can be powerful tools to predict short-term future events, such as flu outbreaks, severe air pollution, traffic congestion, the weather, and patterns of disaster evacuation. At the same time, these technologies monitor users’ digital footprints, opinions and geolocations. Ming-Hsiang Tsou, PhD discusses the challenges in social media analytics, including data noise and biases, fake news, and data privacy. Series: "Exploring Ethics" [Show ID: 35460]

Social media and big data can have important practical applications in public health, disaster management, transportation, and urban planning. Data scientists are using machine learning algorithms, computer vision, and natural language processing to collect and analyze social media data (such as Facebook and YouTube) and environmental sensor/camera data to study human communications and movements. These big data technologies can be powerful tools to predict short-term future events, such as flu outbreaks, severe air pollution, traffic congestion, the weather, and patterns of disaster evacuation. At the same time, these technologies monitor users’ digital footprints, opinions and geolocations. Ming-Hsiang Tsou, PhD discusses the challenges in social media analytics, including data noise and biases, fake news, and data privacy. Series: "Exploring Ethics" [Show ID: 35460]

Social media and big data can have important practical applications in public health, disaster management, transportation, and urban planning. Data scientists are using machine learning algorithms, computer vision, and natural language processing to collect and analyze social media data (such as Facebook and YouTube) and environmental sensor/camera data to study human communications and movements. These big data technologies can be powerful tools to predict short-term future events, such as flu outbreaks, severe air pollution, traffic congestion, the weather, and patterns of disaster evacuation. At the same time, these technologies monitor users’ digital footprints, opinions and geolocations. Ming-Hsiang Tsou, PhD discusses the challenges in social media analytics, including data noise and biases, fake news, and data privacy. Series: "Exploring Ethics" [Show ID: 35460]

Social media and big data can have important practical applications in public health, disaster management, transportation, and urban planning. Data scientists are using machine learning algorithms, computer vision, and natural language processing to collect and analyze social media data (such as Facebook and YouTube) and environmental sensor/camera data to study human communications and movements. These big data technologies can be powerful tools to predict short-term future events, such as flu outbreaks, severe air pollution, traffic congestion, the weather, and patterns of disaster evacuation. At the same time, these technologies monitor users’ digital footprints, opinions and geolocations. Ming-Hsiang Tsou, PhD discusses the challenges in social media analytics, including data noise and biases, fake news, and data privacy. Series: "Exploring Ethics" [Show ID: 35460]

Social media and big data can have important practical applications in public health, disaster management, transportation, and urban planning. Data scientists are using machine learning algorithms, computer vision, and natural language processing to collect and analyze social media data (such as Facebook and YouTube) and environmental sensor/camera data to study human communications and movements. These big data technologies can be powerful tools to predict short-term future events, such as flu outbreaks, severe air pollution, traffic congestion, the weather, and patterns of disaster evacuation. At the same time, these technologies monitor users’ digital footprints, opinions and geolocations. Ming-Hsiang Tsou, PhD discusses the challenges in social media analytics, including data noise and biases, fake news, and data privacy. Series: "Exploring Ethics" [Show ID: 35460]

A major ambition of artificial intelligence lies in translating patient data to successful therapies. Machine learning models face particular challenges in biomedicine, however, including handling of extreme data heterogeneity and lack of mechanistic insight into predictions. Trey Ideker, PhD argues for “visible” approaches that guide model structure with experimental biology. Series: "Exploring Ethics" [Show ID: 35459]

A major ambition of artificial intelligence lies in translating patient data to successful therapies. Machine learning models face particular challenges in biomedicine, however, including handling of extreme data heterogeneity and lack of mechanistic insight into predictions. Trey Ideker, PhD argues for “visible” approaches that guide model structure with experimental biology. Series: "Exploring Ethics" [Show ID: 35459]

A major ambition of artificial intelligence lies in translating patient data to successful therapies. Machine learning models face particular challenges in biomedicine, however, including handling of extreme data heterogeneity and lack of mechanistic insight into predictions. Trey Ideker, PhD argues for “visible” approaches that guide model structure with experimental biology. Series: "Exploring Ethics" [Show ID: 35459]

A major ambition of artificial intelligence lies in translating patient data to successful therapies. Machine learning models face particular challenges in biomedicine, however, including handling of extreme data heterogeneity and lack of mechanistic insight into predictions. Trey Ideker, PhD argues for “visible” approaches that guide model structure with experimental biology. Series: "Exploring Ethics" [Show ID: 35459]

A major ambition of artificial intelligence lies in translating patient data to successful therapies. Machine learning models face particular challenges in biomedicine, however, including handling of extreme data heterogeneity and lack of mechanistic insight into predictions. Trey Ideker, PhD argues for “visible” approaches that guide model structure with experimental biology. Series: "Exploring Ethics" [Show ID: 35459]

A major ambition of artificial intelligence lies in translating patient data to successful therapies. Machine learning models face particular challenges in biomedicine, however, including handling of extreme data heterogeneity and lack of mechanistic insight into predictions. Trey Ideker, PhD argues for “visible” approaches that guide model structure with experimental biology. Series: "Exploring Ethics" [Show ID: 35459]

A major ambition of artificial intelligence lies in translating patient data to successful therapies. Machine learning models face particular challenges in biomedicine, however, including handling of extreme data heterogeneity and lack of mechanistic insight into predictions. Trey Ideker, PhD argues for “visible” approaches that guide model structure with experimental biology. Series: "Exploring Ethics" [Show ID: 35459]

A major ambition of artificial intelligence lies in translating patient data to successful therapies. Machine learning models face particular challenges in biomedicine, however, including handling of extreme data heterogeneity and lack of mechanistic insight into predictions. Trey Ideker, PhD argues for “visible” approaches that guide model structure with experimental biology. Series: "Exploring Ethics" [Show ID: 35459]

A major ambition of artificial intelligence lies in translating patient data to successful therapies. Machine learning models face particular challenges in biomedicine, however, including handling of extreme data heterogeneity and lack of mechanistic insight into predictions. Trey Ideker, PhD argues for “visible” approaches that guide model structure with experimental biology. Series: "Exploring Ethics" [Show ID: 35459]

A major ambition of artificial intelligence lies in translating patient data to successful therapies. Machine learning models face particular challenges in biomedicine, however, including handling of extreme data heterogeneity and lack of mechanistic insight into predictions. Trey Ideker, PhD argues for “visible” approaches that guide model structure with experimental biology. Series: "Exploring Ethics" [Show ID: 35459]

A major ambition of artificial intelligence lies in translating patient data to successful therapies. Machine learning models face particular challenges in biomedicine, however, including handling of extreme data heterogeneity and lack of mechanistic insight into predictions. Trey Ideker, PhD argues for “visible” approaches that guide model structure with experimental biology. Series: "Exploring Ethics" [Show ID: 35459]

A major ambition of artificial intelligence lies in translating patient data to successful therapies. Machine learning models face particular challenges in biomedicine, however, including handling of extreme data heterogeneity and lack of mechanistic insight into predictions. Trey Ideker, PhD argues for “visible” approaches that guide model structure with experimental biology. Series: "Exploring Ethics" [Show ID: 35459]

The ocean plays a major role in regulating Earth’s temperature through exchange of chemicals and microbes with the atmosphere. When waves break, ocean-derived biological species including viruses and bacteria are transferred into the atmosphere. These species can ultimately form clouds, altering precipitation and climate. Highlights will be presented of novel experiments being conducted in a unique ocean-atmosphere simulator developed by the National Science Foundation (NSF) Center for Aerosol Impacts on Chemistry of the Environment (CAICE). Kimberly Prather, Professor of Climate, Atmospheric Science, and Physical Oceanography at UC San Diego will focus on recent CAICE studies aimed at advancing our understanding of how the oceans influence human and planetary health. New insights will be discussed as well as future studies designed to unravel human versus microbial impacts on the changing Earth’s system. Series: "Exploring Ethics" [Show ID: 35000]

The ocean plays a major role in regulating Earth’s temperature through exchange of chemicals and microbes with the atmosphere. When waves break, ocean-derived biological species including viruses and bacteria are transferred into the atmosphere. These species can ultimately form clouds, altering precipitation and climate. Highlights will be presented of novel experiments being conducted in a unique ocean-atmosphere simulator developed by the National Science Foundation (NSF) Center for Aerosol Impacts on Chemistry of the Environment (CAICE). Kimberly Prather, Professor of Climate, Atmospheric Science, and Physical Oceanography at UC San Diego will focus on recent CAICE studies aimed at advancing our understanding of how the oceans influence human and planetary health. New insights will be discussed as well as future studies designed to unravel human versus microbial impacts on the changing Earth’s system. Series: "Exploring Ethics" [Show ID: 35000]

The ocean plays a major role in regulating Earth’s temperature through exchange of chemicals and microbes with the atmosphere. When waves break, ocean-derived biological species including viruses and bacteria are transferred into the atmosphere. These species can ultimately form clouds, altering precipitation and climate. Highlights will be presented of novel experiments being conducted in a unique ocean-atmosphere simulator developed by the National Science Foundation (NSF) Center for Aerosol Impacts on Chemistry of the Environment (CAICE). Kimberly Prather, Professor of Climate, Atmospheric Science, and Physical Oceanography at UC San Diego will focus on recent CAICE studies aimed at advancing our understanding of how the oceans influence human and planetary health. New insights will be discussed as well as future studies designed to unravel human versus microbial impacts on the changing Earth’s system. Series: "Exploring Ethics" [Show ID: 35000]

The ocean plays a major role in regulating Earth’s temperature through exchange of chemicals and microbes with the atmosphere. When waves break, ocean-derived biological species including viruses and bacteria are transferred into the atmosphere. These species can ultimately form clouds, altering precipitation and climate. Highlights will be presented of novel experiments being conducted in a unique ocean-atmosphere simulator developed by the National Science Foundation (NSF) Center for Aerosol Impacts on Chemistry of the Environment (CAICE). Kimberly Prather, Professor of Climate, Atmospheric Science, and Physical Oceanography at UC San Diego will focus on recent CAICE studies aimed at advancing our understanding of how the oceans influence human and planetary health. New insights will be discussed as well as future studies designed to unravel human versus microbial impacts on the changing Earth’s system. Series: "Exploring Ethics" [Show ID: 35000]

The ocean plays a major role in regulating Earth’s temperature through exchange of chemicals and microbes with the atmosphere. When waves break, ocean-derived biological species including viruses and bacteria are transferred into the atmosphere. These species can ultimately form clouds, altering precipitation and climate. Highlights will be presented of novel experiments being conducted in a unique ocean-atmosphere simulator developed by the National Science Foundation (NSF) Center for Aerosol Impacts on Chemistry of the Environment (CAICE). Kimberly Prather, Professor of Climate, Atmospheric Science, and Physical Oceanography at UC San Diego will focus on recent CAICE studies aimed at advancing our understanding of how the oceans influence human and planetary health. New insights will be discussed as well as future studies designed to unravel human versus microbial impacts on the changing Earth’s system. Series: "Exploring Ethics" [Show ID: 35000]

The ocean plays a major role in regulating Earth’s temperature through exchange of chemicals and microbes with the atmosphere. When waves break, ocean-derived biological species including viruses and bacteria are transferred into the atmosphere. These species can ultimately form clouds, altering precipitation and climate. Highlights will be presented of novel experiments being conducted in a unique ocean-atmosphere simulator developed by the National Science Foundation (NSF) Center for Aerosol Impacts on Chemistry of the Environment (CAICE). Kimberly Prather, Professor of Climate, Atmospheric Science, and Physical Oceanography at UC San Diego will focus on recent CAICE studies aimed at advancing our understanding of how the oceans influence human and planetary health. New insights will be discussed as well as future studies designed to unravel human versus microbial impacts on the changing Earth’s system. Series: "Exploring Ethics" [Show ID: 35000]

The ocean plays a major role in regulating Earth’s temperature through exchange of chemicals and microbes with the atmosphere. When waves break, ocean-derived biological species including viruses and bacteria are transferred into the atmosphere. These species can ultimately form clouds, altering precipitation and climate. Highlights will be presented of novel experiments being conducted in a unique ocean-atmosphere simulator developed by the National Science Foundation (NSF) Center for Aerosol Impacts on Chemistry of the Environment (CAICE). Kimberly Prather, Professor of Climate, Atmospheric Science, and Physical Oceanography at UC San Diego will focus on recent CAICE studies aimed at advancing our understanding of how the oceans influence human and planetary health. New insights will be discussed as well as future studies designed to unravel human versus microbial impacts on the changing Earth’s system. Series: "Exploring Ethics" [Show ID: 35000]

The ocean plays a major role in regulating Earth’s temperature through exchange of chemicals and microbes with the atmosphere. When waves break, ocean-derived biological species including viruses and bacteria are transferred into the atmosphere. These species can ultimately form clouds, altering precipitation and climate. Highlights will be presented of novel experiments being conducted in a unique ocean-atmosphere simulator developed by the National Science Foundation (NSF) Center for Aerosol Impacts on Chemistry of the Environment (CAICE). Kimberly Prather, Professor of Climate, Atmospheric Science, and Physical Oceanography at UC San Diego will focus on recent CAICE studies aimed at advancing our understanding of how the oceans influence human and planetary health. New insights will be discussed as well as future studies designed to unravel human versus microbial impacts on the changing Earth’s system. Series: "Exploring Ethics" [Show ID: 35000]

The ocean plays a major role in regulating Earth’s temperature through exchange of chemicals and microbes with the atmosphere. When waves break, ocean-derived biological species including viruses and bacteria are transferred into the atmosphere. These species can ultimately form clouds, altering precipitation and climate. Highlights will be presented of novel experiments being conducted in a unique ocean-atmosphere simulator developed by the National Science Foundation (NSF) Center for Aerosol Impacts on Chemistry of the Environment (CAICE). Kimberly Prather, Professor of Climate, Atmospheric Science, and Physical Oceanography at UC San Diego will focus on recent CAICE studies aimed at advancing our understanding of how the oceans influence human and planetary health. New insights will be discussed as well as future studies designed to unravel human versus microbial impacts on the changing Earth’s system. Series: "Exploring Ethics" [Show ID: 35000]

The ocean plays a major role in regulating Earth’s temperature through exchange of chemicals and microbes with the atmosphere. When waves break, ocean-derived biological species including viruses and bacteria are transferred into the atmosphere. These species can ultimately form clouds, altering precipitation and climate. Highlights will be presented of novel experiments being conducted in a unique ocean-atmosphere simulator developed by the National Science Foundation (NSF) Center for Aerosol Impacts on Chemistry of the Environment (CAICE). Kimberly Prather, Professor of Climate, Atmospheric Science, and Physical Oceanography at UC San Diego will focus on recent CAICE studies aimed at advancing our understanding of how the oceans influence human and planetary health. New insights will be discussed as well as future studies designed to unravel human versus microbial impacts on the changing Earth’s system. Series: "Exploring Ethics" [Show ID: 35000]

The ocean plays a major role in regulating Earth’s temperature through exchange of chemicals and microbes with the atmosphere. When waves break, ocean-derived biological species including viruses and bacteria are transferred into the atmosphere. These species can ultimately form clouds, altering precipitation and climate. Highlights will be presented of novel experiments being conducted in a unique ocean-atmosphere simulator developed by the National Science Foundation (NSF) Center for Aerosol Impacts on Chemistry of the Environment (CAICE). Kimberly Prather, Professor of Climate, Atmospheric Science, and Physical Oceanography at UC San Diego will focus on recent CAICE studies aimed at advancing our understanding of how the oceans influence human and planetary health. New insights will be discussed as well as future studies designed to unravel human versus microbial impacts on the changing Earth’s system. Series: "Exploring Ethics" [Show ID: 35000]

The ocean plays a major role in regulating Earth’s temperature through exchange of chemicals and microbes with the atmosphere. When waves break, ocean-derived biological species including viruses and bacteria are transferred into the atmosphere. These species can ultimately form clouds, altering precipitation and climate. Highlights will be presented of novel experiments being conducted in a unique ocean-atmosphere simulator developed by the National Science Foundation (NSF) Center for Aerosol Impacts on Chemistry of the Environment (CAICE). Kimberly Prather, Professor of Climate, Atmospheric Science, and Physical Oceanography at UC San Diego will focus on recent CAICE studies aimed at advancing our understanding of how the oceans influence human and planetary health. New insights will be discussed as well as future studies designed to unravel human versus microbial impacts on the changing Earth’s system. Series: "Exploring Ethics" [Show ID: 35000]

The ocean plays a major role in regulating Earth’s temperature through exchange of chemicals and microbes with the atmosphere. When waves break, ocean-derived biological species including viruses and bacteria are transferred into the atmosphere. These species can ultimately form clouds, altering precipitation and climate. Highlights will be presented of novel experiments being conducted in a unique ocean-atmosphere simulator developed by the National Science Foundation (NSF) Center for Aerosol Impacts on Chemistry of the Environment (CAICE). Kimberly Prather, Professor of Climate, Atmospheric Science, and Physical Oceanography at UC San Diego will focus on recent CAICE studies aimed at advancing our understanding of how the oceans influence human and planetary health. New insights will be discussed as well as future studies designed to unravel human versus microbial impacts on the changing Earth’s system. Series: "Exploring Ethics" [Show ID: 35000]

The ocean plays a major role in regulating Earth’s temperature through exchange of chemicals and microbes with the atmosphere. When waves break, ocean-derived biological species including viruses and bacteria are transferred into the atmosphere. These species can ultimately form clouds, altering precipitation and climate. Highlights will be presented of novel experiments being conducted in a unique ocean-atmosphere simulator developed by the National Science Foundation (NSF) Center for Aerosol Impacts on Chemistry of the Environment (CAICE). Kimberly Prather, Professor of Climate, Atmospheric Science, and Physical Oceanography at UC San Diego will focus on recent CAICE studies aimed at advancing our understanding of how the oceans influence human and planetary health. New insights will be discussed as well as future studies designed to unravel human versus microbial impacts on the changing Earth’s system. Series: "Exploring Ethics" [Show ID: 35000]

The ocean plays a major role in regulating Earth’s temperature through exchange of chemicals and microbes with the atmosphere. When waves break, ocean-derived biological species including viruses and bacteria are transferred into the atmosphere. These species can ultimately form clouds, altering precipitation and climate. Highlights will be presented of novel experiments being conducted in a unique ocean-atmosphere simulator developed by the National Science Foundation (NSF) Center for Aerosol Impacts on Chemistry of the Environment (CAICE). Kimberly Prather, Professor of Climate, Atmospheric Science, and Physical Oceanography at UC San Diego will focus on recent CAICE studies aimed at advancing our understanding of how the oceans influence human and planetary health. New insights will be discussed as well as future studies designed to unravel human versus microbial impacts on the changing Earth’s system. Series: "Exploring Ethics" [Show ID: 35000]

The ocean plays a major role in regulating Earth’s temperature through exchange of chemicals and microbes with the atmosphere. When waves break, ocean-derived biological species including viruses and bacteria are transferred into the atmosphere. These species can ultimately form clouds, altering precipitation and climate. Highlights will be presented of novel experiments being conducted in a unique ocean-atmosphere simulator developed by the National Science Foundation (NSF) Center for Aerosol Impacts on Chemistry of the Environment (CAICE). Kimberly Prather, Professor of Climate, Atmospheric Science, and Physical Oceanography at UC San Diego will focus on recent CAICE studies aimed at advancing our understanding of how the oceans influence human and planetary health. New insights will be discussed as well as future studies designed to unravel human versus microbial impacts on the changing Earth’s system. Series: "Exploring Ethics" [Show ID: 35000]

E-cigarettes have become popular and widely used so fast that the safety testing on them is practically non-existent. While researchers rush to define the toxicities and potential health effects of e-cigarettes, should we be advising everyone against these nicotine delivery devices? Or should we try to be positive and hopeful, in case e-cigarettes have fewer adverse health effects relative to conventional tobacco cigarettes, and thus advise current smokers to switch to e-cigs as a harm reduction strategy? Beyond that, what are the risks of the different e-cig flavors and types of devices? Is vaping caffeine and THC more or less dangerous than vaping nicotine? What are the specific dangers of e-cig use for children, teenagers and young adults? Laura E. Crotty Alexander, MD examines the evolution of e-cigarettes and and shares a physician's view. Series: "Exploring Ethics" [Show ID: 34999]

E-cigarettes have become popular and widely used so fast that the safety testing on them is practically non-existent. While researchers rush to define the toxicities and potential health effects of e-cigarettes, should we be advising everyone against these nicotine delivery devices? Or should we try to be positive and hopeful, in case e-cigarettes have fewer adverse health effects relative to conventional tobacco cigarettes, and thus advise current smokers to switch to e-cigs as a harm reduction strategy? Beyond that, what are the risks of the different e-cig flavors and types of devices? Is vaping caffeine and THC more or less dangerous than vaping nicotine? What are the specific dangers of e-cig use for children, teenagers and young adults? Laura E. Crotty Alexander, MD examines the evolution of e-cigarettes and and shares a physician's view. Series: "Exploring Ethics" [Show ID: 34999]

E-cigarettes have become popular and widely used so fast that the safety testing on them is practically non-existent. While researchers rush to define the toxicities and potential health effects of e-cigarettes, should we be advising everyone against these nicotine delivery devices? Or should we try to be positive and hopeful, in case e-cigarettes have fewer adverse health effects relative to conventional tobacco cigarettes, and thus advise current smokers to switch to e-cigs as a harm reduction strategy? Beyond that, what are the risks of the different e-cig flavors and types of devices? Is vaping caffeine and THC more or less dangerous than vaping nicotine? What are the specific dangers of e-cig use for children, teenagers and young adults? Laura E. Crotty Alexander, MD examines the evolution of e-cigarettes and and shares a physician's view. Series: "Exploring Ethics" [Show ID: 34999]

E-cigarettes have become popular and widely used so fast that the safety testing on them is practically non-existent. While researchers rush to define the toxicities and potential health effects of e-cigarettes, should we be advising everyone against these nicotine delivery devices? Or should we try to be positive and hopeful, in case e-cigarettes have fewer adverse health effects relative to conventional tobacco cigarettes, and thus advise current smokers to switch to e-cigs as a harm reduction strategy? Beyond that, what are the risks of the different e-cig flavors and types of devices? Is vaping caffeine and THC more or less dangerous than vaping nicotine? What are the specific dangers of e-cig use for children, teenagers and young adults? Laura E. Crotty Alexander, MD examines the evolution of e-cigarettes and and shares a physician's view. Series: "Exploring Ethics" [Show ID: 34999]

E-cigarettes have become popular and widely used so fast that the safety testing on them is practically non-existent. While researchers rush to define the toxicities and potential health effects of e-cigarettes, should we be advising everyone against these nicotine delivery devices? Or should we try to be positive and hopeful, in case e-cigarettes have fewer adverse health effects relative to conventional tobacco cigarettes, and thus advise current smokers to switch to e-cigs as a harm reduction strategy? Beyond that, what are the risks of the different e-cig flavors and types of devices? Is vaping caffeine and THC more or less dangerous than vaping nicotine? What are the specific dangers of e-cig use for children, teenagers and young adults? Laura E. Crotty Alexander, MD examines the evolution of e-cigarettes and and shares a physician's view. Series: "Exploring Ethics" [Show ID: 34999]

E-cigarettes have become popular and widely used so fast that the safety testing on them is practically non-existent. While researchers rush to define the toxicities and potential health effects of e-cigarettes, should we be advising everyone against these nicotine delivery devices? Or should we try to be positive and hopeful, in case e-cigarettes have fewer adverse health effects relative to conventional tobacco cigarettes, and thus advise current smokers to switch to e-cigs as a harm reduction strategy? Beyond that, what are the risks of the different e-cig flavors and types of devices? Is vaping caffeine and THC more or less dangerous than vaping nicotine? What are the specific dangers of e-cig use for children, teenagers and young adults? Laura E. Crotty Alexander, MD examines the evolution of e-cigarettes and and shares a physician's view. Series: "Exploring Ethics" [Show ID: 34999]

E-cigarettes have become popular and widely used so fast that the safety testing on them is practically non-existent. While researchers rush to define the toxicities and potential health effects of e-cigarettes, should we be advising everyone against these nicotine delivery devices? Or should we try to be positive and hopeful, in case e-cigarettes have fewer adverse health effects relative to conventional tobacco cigarettes, and thus advise current smokers to switch to e-cigs as a harm reduction strategy? Beyond that, what are the risks of the different e-cig flavors and types of devices? Is vaping caffeine and THC more or less dangerous than vaping nicotine? What are the specific dangers of e-cig use for children, teenagers and young adults? Laura E. Crotty Alexander, MD examines the evolution of e-cigarettes and and shares a physician's view. Series: "Exploring Ethics" [Show ID: 34999]

E-cigarettes have become popular and widely used so fast that the safety testing on them is practically non-existent. While researchers rush to define the toxicities and potential health effects of e-cigarettes, should we be advising everyone against these nicotine delivery devices? Or should we try to be positive and hopeful, in case e-cigarettes have fewer adverse health effects relative to conventional tobacco cigarettes, and thus advise current smokers to switch to e-cigs as a harm reduction strategy? Beyond that, what are the risks of the different e-cig flavors and types of devices? Is vaping caffeine and THC more or less dangerous than vaping nicotine? What are the specific dangers of e-cig use for children, teenagers and young adults? Laura E. Crotty Alexander, MD examines the evolution of e-cigarettes and and shares a physician's view. Series: "Exploring Ethics" [Show ID: 34999]

In the United States, privacy is considered a fundamental right. Yet today our activities are followed to a degree unfathomable not long ago by way of cell phones, online behaviors, and more. As genomic technologies continue to expand, another avenue now exists by which we may potentially be scrutinized: DNA sequence. Our genetic information contains our most private details, but we leave it everywhere and share the sequence closely with dozens or even hundreds of relatives. Laura Rivard, PhD, professor of biology at the University of San Diego, discusses ways in which our DNA may "escape" from our control, what can actually be done with the sequence, and whether there is cause for concern. Series: "Exploring Ethics" [Show ID: 34998]

In the United States, privacy is considered a fundamental right. Yet today our activities are followed to a degree unfathomable not long ago by way of cell phones, online behaviors, and more. As genomic technologies continue to expand, another avenue now exists by which we may potentially be scrutinized: DNA sequence. Our genetic information contains our most private details, but we leave it everywhere and share the sequence closely with dozens or even hundreds of relatives. Laura Rivard, PhD, professor of biology at the University of San Diego, discusses ways in which our DNA may "escape" from our control, what can actually be done with the sequence, and whether there is cause for concern. Series: "Exploring Ethics" [Show ID: 34998]

In the United States, privacy is considered a fundamental right. Yet today our activities are followed to a degree unfathomable not long ago by way of cell phones, online behaviors, and more. As genomic technologies continue to expand, another avenue now exists by which we may potentially be scrutinized: DNA sequence. Our genetic information contains our most private details, but we leave it everywhere and share the sequence closely with dozens or even hundreds of relatives. Laura Rivard, PhD, professor of biology at the University of San Diego, discusses ways in which our DNA may "escape" from our control, what can actually be done with the sequence, and whether there is cause for concern. Series: "Exploring Ethics" [Show ID: 34998]

In the United States, privacy is considered a fundamental right. Yet today our activities are followed to a degree unfathomable not long ago by way of cell phones, online behaviors, and more. As genomic technologies continue to expand, another avenue now exists by which we may potentially be scrutinized: DNA sequence. Our genetic information contains our most private details, but we leave it everywhere and share the sequence closely with dozens or even hundreds of relatives. Laura Rivard, PhD, professor of biology at the University of San Diego, discusses ways in which our DNA may "escape" from our control, what can actually be done with the sequence, and whether there is cause for concern. Series: "Exploring Ethics" [Show ID: 34998]

In the United States, privacy is considered a fundamental right. Yet today our activities are followed to a degree unfathomable not long ago by way of cell phones, online behaviors, and more. As genomic technologies continue to expand, another avenue now exists by which we may potentially be scrutinized: DNA sequence. Our genetic information contains our most private details, but we leave it everywhere and share the sequence closely with dozens or even hundreds of relatives. Laura Rivard, PhD, professor of biology at the University of San Diego, discusses ways in which our DNA may "escape" from our control, what can actually be done with the sequence, and whether there is cause for concern. Series: "Exploring Ethics" [Show ID: 34998]

In the United States, privacy is considered a fundamental right. Yet today our activities are followed to a degree unfathomable not long ago by way of cell phones, online behaviors, and more. As genomic technologies continue to expand, another avenue now exists by which we may potentially be scrutinized: DNA sequence. Our genetic information contains our most private details, but we leave it everywhere and share the sequence closely with dozens or even hundreds of relatives. Laura Rivard, PhD, professor of biology at the University of San Diego, discusses ways in which our DNA may "escape" from our control, what can actually be done with the sequence, and whether there is cause for concern. Series: "Exploring Ethics" [Show ID: 34998]

In the United States, privacy is considered a fundamental right. Yet today our activities are followed to a degree unfathomable not long ago by way of cell phones, online behaviors, and more. As genomic technologies continue to expand, another avenue now exists by which we may potentially be scrutinized: DNA sequence. Our genetic information contains our most private details, but we leave it everywhere and share the sequence closely with dozens or even hundreds of relatives. Laura Rivard, PhD, professor of biology at the University of San Diego, discusses ways in which our DNA may "escape" from our control, what can actually be done with the sequence, and whether there is cause for concern. Series: "Exploring Ethics" [Show ID: 34998]

In the United States, privacy is considered a fundamental right. Yet today our activities are followed to a degree unfathomable not long ago by way of cell phones, online behaviors, and more. As genomic technologies continue to expand, another avenue now exists by which we may potentially be scrutinized: DNA sequence. Our genetic information contains our most private details, but we leave it everywhere and share the sequence closely with dozens or even hundreds of relatives. Laura Rivard, PhD, professor of biology at the University of San Diego, discusses ways in which our DNA may "escape" from our control, what can actually be done with the sequence, and whether there is cause for concern. Series: "Exploring Ethics" [Show ID: 34998]

Research imaging studies, including MRI and CT scans, may provide different information than the imaging performed for clinical care. For instance, a liver MRI using research sequences could be more sensitive at detecting tumors than a standard study. As a result, a patient might no longer qualify for surgery according to the research study. However, information derived from research sequences may not be clinically accurate. Hence the need to conduct a thorough investigation and compare against a gold standard (e.g. a surgical result). Kathryn Fowler, MD, Associate Professor of Clinical Radiology at UC San Diego discuses the ethics of patients and physicians being made aware of research results if they are not verifiably accurate. Series: "Exploring Ethics" [Show ID: 34997]

Research imaging studies, including MRI and CT scans, may provide different information than the imaging performed for clinical care. For instance, a liver MRI using research sequences could be more sensitive at detecting tumors than a standard study. As a result, a patient might no longer qualify for surgery according to the research study. However, information derived from research sequences may not be clinically accurate. Hence the need to conduct a thorough investigation and compare against a gold standard (e.g. a surgical result). Kathryn Fowler, MD, Associate Professor of Clinical Radiology at UC San Diego discuses the ethics of patients and physicians being made aware of research results if they are not verifiably accurate. Series: "Exploring Ethics" [Show ID: 34997]

Research imaging studies, including MRI and CT scans, may provide different information than the imaging performed for clinical care. For instance, a liver MRI using research sequences could be more sensitive at detecting tumors than a standard study. As a result, a patient might no longer qualify for surgery according to the research study. However, information derived from research sequences may not be clinically accurate. Hence the need to conduct a thorough investigation and compare against a gold standard (e.g. a surgical result). Kathryn Fowler, MD, Associate Professor of Clinical Radiology at UC San Diego discuses the ethics of patients and physicians being made aware of research results if they are not verifiably accurate. Series: "Exploring Ethics" [Show ID: 34997]

Research imaging studies, including MRI and CT scans, may provide different information than the imaging performed for clinical care. For instance, a liver MRI using research sequences could be more sensitive at detecting tumors than a standard study. As a result, a patient might no longer qualify for surgery according to the research study. However, information derived from research sequences may not be clinically accurate. Hence the need to conduct a thorough investigation and compare against a gold standard (e.g. a surgical result). Kathryn Fowler, MD, Associate Professor of Clinical Radiology at UC San Diego discuses the ethics of patients and physicians being made aware of research results if they are not verifiably accurate. Series: "Exploring Ethics" [Show ID: 34997]

Research imaging studies, including MRI and CT scans, may provide different information than the imaging performed for clinical care. For instance, a liver MRI using research sequences could be more sensitive at detecting tumors than a standard study. As a result, a patient might no longer qualify for surgery according to the research study. However, information derived from research sequences may not be clinically accurate. Hence the need to conduct a thorough investigation and compare against a gold standard (e.g. a surgical result). Kathryn Fowler, MD, Associate Professor of Clinical Radiology at UC San Diego discuses the ethics of patients and physicians being made aware of research results if they are not verifiably accurate. Series: "Exploring Ethics" [Show ID: 34997]

Research imaging studies, including MRI and CT scans, may provide different information than the imaging performed for clinical care. For instance, a liver MRI using research sequences could be more sensitive at detecting tumors than a standard study. As a result, a patient might no longer qualify for surgery according to the research study. However, information derived from research sequences may not be clinically accurate. Hence the need to conduct a thorough investigation and compare against a gold standard (e.g. a surgical result). Kathryn Fowler, MD, Associate Professor of Clinical Radiology at UC San Diego discuses the ethics of patients and physicians being made aware of research results if they are not verifiably accurate. Series: "Exploring Ethics" [Show ID: 34997]