Podcasts about green science and technology

UC Berkeley drills a 400-foot borehole to explore geothermal heating on campus. UC Berkeley plans to decommission its 40-year-old cogeneration plant and replace its current steam heating system with a new system that uses water pipes to heat and cool buildings on campus. While the cogeneration plant burns natural gas to produce electricity and steam heat for the campus, the new system will use electricity for both power and thermal needs. By using clean energy sources, such as wind and solar, to produce this electricity, the campus's future power, heating and cooling needs would be entirely carbon-free. (Video: Roxanne Makasdjian, Alan Toth, Adam Lau) Series: "UC Berkeley News" [Public Affairs] [Science] [Show ID: 39224]

UC Berkeley drills a 400-foot borehole to explore geothermal heating on campus. UC Berkeley plans to decommission its 40-year-old cogeneration plant and replace its current steam heating system with a new system that uses water pipes to heat and cool buildings on campus. While the cogeneration plant burns natural gas to produce electricity and steam heat for the campus, the new system will use electricity for both power and thermal needs. By using clean energy sources, such as wind and solar, to produce this electricity, the campus's future power, heating and cooling needs would be entirely carbon-free. (Video: Roxanne Makasdjian, Alan Toth, Adam Lau) Series: "UC Berkeley News" [Public Affairs] [Science] [Show ID: 39224]

UC Berkeley drills a 400-foot borehole to explore geothermal heating on campus. UC Berkeley plans to decommission its 40-year-old cogeneration plant and replace its current steam heating system with a new system that uses water pipes to heat and cool buildings on campus. While the cogeneration plant burns natural gas to produce electricity and steam heat for the campus, the new system will use electricity for both power and thermal needs. By using clean energy sources, such as wind and solar, to produce this electricity, the campus's future power, heating and cooling needs would be entirely carbon-free. (Video: Roxanne Makasdjian, Alan Toth, Adam Lau) Series: "UC Berkeley News" [Public Affairs] [Science] [Show ID: 39224]

UC Berkeley drills a 400-foot borehole to explore geothermal heating on campus. UC Berkeley plans to decommission its 40-year-old cogeneration plant and replace its current steam heating system with a new system that uses water pipes to heat and cool buildings on campus. While the cogeneration plant burns natural gas to produce electricity and steam heat for the campus, the new system will use electricity for both power and thermal needs. By using clean energy sources, such as wind and solar, to produce this electricity, the campus's future power, heating and cooling needs would be entirely carbon-free. (Video: Roxanne Makasdjian, Alan Toth, Adam Lau) Series: "UC Berkeley News" [Public Affairs] [Science] [Show ID: 39224]

UC Berkeley drills a 400-foot borehole to explore geothermal heating on campus. UC Berkeley plans to decommission its 40-year-old cogeneration plant and replace its current steam heating system with a new system that uses water pipes to heat and cool buildings on campus. While the cogeneration plant burns natural gas to produce electricity and steam heat for the campus, the new system will use electricity for both power and thermal needs. By using clean energy sources, such as wind and solar, to produce this electricity, the campus's future power, heating and cooling needs would be entirely carbon-free. (Video: Roxanne Makasdjian, Alan Toth, Adam Lau) Series: "UC Berkeley News" [Public Affairs] [Science] [Show ID: 39224]

UC Berkeley drills a 400-foot borehole to explore geothermal heating on campus. UC Berkeley plans to decommission its 40-year-old cogeneration plant and replace its current steam heating system with a new system that uses water pipes to heat and cool buildings on campus. While the cogeneration plant burns natural gas to produce electricity and steam heat for the campus, the new system will use electricity for both power and thermal needs. By using clean energy sources, such as wind and solar, to produce this electricity, the campus's future power, heating and cooling needs would be entirely carbon-free. (Video: Roxanne Makasdjian, Alan Toth, Adam Lau) Series: "UC Berkeley News" [Public Affairs] [Science] [Show ID: 39224]

Plastic is everywhere. There are 17 trillion tons of the stuff on the planet. While plastic is convenient and cheap, it can take hundreds of years to decompose. Michael Burkart, Ph.D., professor of chemistry and biochemistry at UC San Diego, works on inventing new types of renewable, biodegradable plastic made from algae, including the world's first algae surfboard as well as flip flops and sneakers. Burkart is a founder and has an equity position in Algenesis Materials. Series: "Triton Talks" [Science] [Show ID: 38075]

Plastic is everywhere. There are 17 trillion tons of the stuff on the planet. While plastic is convenient and cheap, it can take hundreds of years to decompose. Michael Burkart, Ph.D., professor of chemistry and biochemistry at UC San Diego, works on inventing new types of renewable, biodegradable plastic made from algae, including the world's first algae surfboard as well as flip flops and sneakers. Burkart is a founder and has an equity position in Algenesis Materials. Series: "Triton Talks" [Science] [Show ID: 38075]

Plastic is everywhere. There are 17 trillion tons of the stuff on the planet. While plastic is convenient and cheap, it can take hundreds of years to decompose. Michael Burkart, Ph.D., professor of chemistry and biochemistry at UC San Diego, works on inventing new types of renewable, biodegradable plastic made from algae, including the world's first algae surfboard as well as flip flops and sneakers. Burkart is a founder and has an equity position in Algenesis Materials. Series: "Triton Talks" [Science] [Show ID: 38075]

Plastic is everywhere. There are 17 trillion tons of the stuff on the planet. While plastic is convenient and cheap, it can take hundreds of years to decompose. Michael Burkart, Ph.D., professor of chemistry and biochemistry at UC San Diego, works on inventing new types of renewable, biodegradable plastic made from algae, including the world's first algae surfboard as well as flip flops and sneakers. Burkart is a founder and has an equity position in Algenesis Materials. Series: "Triton Talks" [Science] [Show ID: 38075]

Plastic is everywhere. There are 17 trillion tons of the stuff on the planet. While plastic is convenient and cheap, it can take hundreds of years to decompose. Michael Burkart, Ph.D., professor of chemistry and biochemistry at UC San Diego, works on inventing new types of renewable, biodegradable plastic made from algae, including the world's first algae surfboard as well as flip flops and sneakers. Burkart is a founder and has an equity position in Algenesis Materials. Series: "Triton Talks" [Science] [Show ID: 38075]

Plastic is everywhere. There are 17 trillion tons of the stuff on the planet. While plastic is convenient and cheap, it can take hundreds of years to decompose. Michael Burkart, Ph.D., professor of chemistry and biochemistry at UC San Diego, works on inventing new types of renewable, biodegradable plastic made from algae, including the world's first algae surfboard as well as flip flops and sneakers. Burkart is a founder and has an equity position in Algenesis Materials. Series: "Triton Talks" [Science] [Show ID: 38075]

Decarbonizing our electricity and transportation sectors will require large deployments of wind, solar, and storage. Ranjit Deshmukh develops models for planning and operations of low carbon electricity grids and analyzes tradeoffs between economic, environmental, and social objectives for regions in the U.S., India, and Africa. These models optimize wind, solar, and other generation, demand, and storage resources for region-specific conditions including spatial and temporal variability of renewable resources. Series: "Institute for Energy Efficiency" [Show ID: 35165]

Decarbonizing our electricity and transportation sectors will require large deployments of wind, solar, and storage. Ranjit Deshmukh develops models for planning and operations of low carbon electricity grids and analyzes tradeoffs between economic, environmental, and social objectives for regions in the U.S., India, and Africa. These models optimize wind, solar, and other generation, demand, and storage resources for region-specific conditions including spatial and temporal variability of renewable resources. Series: "Institute for Energy Efficiency" [Show ID: 35165]

Decarbonizing our electricity and transportation sectors will require large deployments of wind, solar, and storage. Ranjit Deshmukh develops models for planning and operations of low carbon electricity grids and analyzes tradeoffs between economic, environmental, and social objectives for regions in the U.S., India, and Africa. These models optimize wind, solar, and other generation, demand, and storage resources for region-specific conditions including spatial and temporal variability of renewable resources. Series: "Institute for Energy Efficiency" [Show ID: 35165]

Decarbonizing our electricity and transportation sectors will require large deployments of wind, solar, and storage. Ranjit Deshmukh develops models for planning and operations of low carbon electricity grids and analyzes tradeoffs between economic, environmental, and social objectives for regions in the U.S., India, and Africa. These models optimize wind, solar, and other generation, demand, and storage resources for region-specific conditions including spatial and temporal variability of renewable resources. Series: "Institute for Energy Efficiency" [Show ID: 35165]

Decarbonizing our electricity and transportation sectors will require large deployments of wind, solar, and storage. Ranjit Deshmukh develops models for planning and operations of low carbon electricity grids and analyzes tradeoffs between economic, environmental, and social objectives for regions in the U.S., India, and Africa. These models optimize wind, solar, and other generation, demand, and storage resources for region-specific conditions including spatial and temporal variability of renewable resources. Series: "Institute for Energy Efficiency" [Show ID: 35165]

Decarbonizing our electricity and transportation sectors will require large deployments of wind, solar, and storage. Ranjit Deshmukh develops models for planning and operations of low carbon electricity grids and analyzes tradeoffs between economic, environmental, and social objectives for regions in the U.S., India, and Africa. These models optimize wind, solar, and other generation, demand, and storage resources for region-specific conditions including spatial and temporal variability of renewable resources. Series: "Institute for Energy Efficiency" [Show ID: 35165]

California's recent drought has highlighted the need for a reliable source of water. Peter Stricker of SeaWell presents a reverse osmosis (RO) system to address climate-driven drought which is an entirely new approach to water supply. The SeaWell buoy is a self-contained floating vessel, moored to the sea floor, with seawater intake and brine diffusion outfall. It contains reverse osmosis equipment, electric power and water piping, and can permeate water at a rate of 950–3,800 acre-feet/year. The implementation plan is to deploy pilot SeaWell Buoys at a water cost already below the cost of State water,initially partnering with water districts to deploy five water portals. Landing sites could be chosen based in previously disturbed areas, such as decommissioned oil receiving facilities and sanitary district outfalls. These deployments will augment new water reuse projects, and share siting and infrastructure. Series: "Institute for Energy Efficiency" [Show ID: 35163]

California's recent drought has highlighted the need for a reliable source of water. Peter Stricker of SeaWell presents a reverse osmosis (RO) system to address climate-driven drought which is an entirely new approach to water supply. The SeaWell buoy is a self-contained floating vessel, moored to the sea floor, with seawater intake and brine diffusion outfall. It contains reverse osmosis equipment, electric power and water piping, and can permeate water at a rate of 950–3,800 acre-feet/year. The implementation plan is to deploy pilot SeaWell Buoys at a water cost already below the cost of State water,initially partnering with water districts to deploy five water portals. Landing sites could be chosen based in previously disturbed areas, such as decommissioned oil receiving facilities and sanitary district outfalls. These deployments will augment new water reuse projects, and share siting and infrastructure. Series: "Institute for Energy Efficiency" [Show ID: 35163]

California's recent drought has highlighted the need for a reliable source of water. Peter Stricker of SeaWell presents a reverse osmosis (RO) system to address climate-driven drought which is an entirely new approach to water supply. The SeaWell buoy is a self-contained floating vessel, moored to the sea floor, with seawater intake and brine diffusion outfall. It contains reverse osmosis equipment, electric power and water piping, and can permeate water at a rate of 950–3,800 acre-feet/year. The implementation plan is to deploy pilot SeaWell Buoys at a water cost already below the cost of State water,initially partnering with water districts to deploy five water portals. Landing sites could be chosen based in previously disturbed areas, such as decommissioned oil receiving facilities and sanitary district outfalls. These deployments will augment new water reuse projects, and share siting and infrastructure. Series: "Institute for Energy Efficiency" [Show ID: 35163]

California's recent drought has highlighted the need for a reliable source of water. Peter Stricker of SeaWell presents a reverse osmosis (RO) system to address climate-driven drought which is an entirely new approach to water supply. The SeaWell buoy is a self-contained floating vessel, moored to the sea floor, with seawater intake and brine diffusion outfall. It contains reverse osmosis equipment, electric power and water piping, and can permeate water at a rate of 950–3,800 acre-feet/year. The implementation plan is to deploy pilot SeaWell Buoys at a water cost already below the cost of State water,initially partnering with water districts to deploy five water portals. Landing sites could be chosen based in previously disturbed areas, such as decommissioned oil receiving facilities and sanitary district outfalls. These deployments will augment new water reuse projects, and share siting and infrastructure. Series: "Institute for Energy Efficiency" [Show ID: 35163]

California's recent drought has highlighted the need for a reliable source of water. Peter Stricker of SeaWell presents a reverse osmosis (RO) system to address climate-driven drought which is an entirely new approach to water supply. The SeaWell buoy is a self-contained floating vessel, moored to the sea floor, with seawater intake and brine diffusion outfall. It contains reverse osmosis equipment, electric power and water piping, and can permeate water at a rate of 950–3,800 acre-feet/year. The implementation plan is to deploy pilot SeaWell Buoys at a water cost already below the cost of State water,initially partnering with water districts to deploy five water portals. Landing sites could be chosen based in previously disturbed areas, such as decommissioned oil receiving facilities and sanitary district outfalls. These deployments will augment new water reuse projects, and share siting and infrastructure. Series: "Institute for Energy Efficiency" [Show ID: 35163]

California's recent drought has highlighted the need for a reliable source of water. Peter Stricker of SeaWell presents a reverse osmosis (RO) system to address climate-driven drought which is an entirely new approach to water supply. The SeaWell buoy is a self-contained floating vessel, moored to the sea floor, with seawater intake and brine diffusion outfall. It contains reverse osmosis equipment, electric power and water piping, and can permeate water at a rate of 950–3,800 acre-feet/year. The implementation plan is to deploy pilot SeaWell Buoys at a water cost already below the cost of State water,initially partnering with water districts to deploy five water portals. Landing sites could be chosen based in previously disturbed areas, such as decommissioned oil receiving facilities and sanitary district outfalls. These deployments will augment new water reuse projects, and share siting and infrastructure. Series: "Institute for Energy Efficiency" [Show ID: 35163]

California's recent drought has highlighted the need for a reliable source of water. Peter Stricker of SeaWell presents a reverse osmosis (RO) system to address climate-driven drought which is an entirely new approach to water supply. The SeaWell buoy is a self-contained floating vessel, moored to the sea floor, with seawater intake and brine diffusion outfall. It contains reverse osmosis equipment, electric power and water piping, and can permeate water at a rate of 950–3,800 acre-feet/year. The implementation plan is to deploy pilot SeaWell Buoys at a water cost already below the cost of State water,initially partnering with water districts to deploy five water portals. Landing sites could be chosen based in previously disturbed areas, such as decommissioned oil receiving facilities and sanitary district outfalls. These deployments will augment new water reuse projects, and share siting and infrastructure. Series: "Institute for Energy Efficiency" [Show ID: 35163]

California's recent drought has highlighted the need for a reliable source of water. Peter Stricker of SeaWell presents a reverse osmosis (RO) system to address climate-driven drought which is an entirely new approach to water supply. The SeaWell buoy is a self-contained floating vessel, moored to the sea floor, with seawater intake and brine diffusion outfall. It contains reverse osmosis equipment, electric power and water piping, and can permeate water at a rate of 950–3,800 acre-feet/year. The implementation plan is to deploy pilot SeaWell Buoys at a water cost already below the cost of State water,initially partnering with water districts to deploy five water portals. Landing sites could be chosen based in previously disturbed areas, such as decommissioned oil receiving facilities and sanitary district outfalls. These deployments will augment new water reuse projects, and share siting and infrastructure. Series: "Institute for Energy Efficiency" [Show ID: 35163]

Marine biologist Jennifer Smith talks about the properties and history of the superfood seaweed. Series: "Jeffrey B. Graham Perspectives on Ocean Science Lecture Series" [Science] [Show ID: 35070]

Marine biologist Jennifer Smith talks about the properties and history of the superfood seaweed. Series: "Jeffrey B. Graham Perspectives on Ocean Science Lecture Series" [Science] [Show ID: 35070]

Marine biologist Jennifer Smith talks about the properties and history of the superfood seaweed. Series: "Jeffrey B. Graham Perspectives on Ocean Science Lecture Series" [Science] [Show ID: 35070]

Marine biologist Jennifer Smith talks about the properties and history of the superfood seaweed. Series: "Jeffrey B. Graham Perspectives on Ocean Science Lecture Series" [Science] [Show ID: 35070]

Marine biologist Jennifer Smith talks about the properties and history of the superfood seaweed. Series: "Jeffrey B. Graham Perspectives on Ocean Science Lecture Series" [Science] [Show ID: 35070]

Marine biologist Jennifer Smith talks about the properties and history of the superfood seaweed. Series: "Jeffrey B. Graham Perspectives on Ocean Science Lecture Series" [Science] [Show ID: 35070]

Marine biologist Jennifer Smith talks about the properties and history of the superfood seaweed. Series: "Jeffrey B. Graham Perspectives on Ocean Science Lecture Series" [Science] [Show ID: 35070]

Marine biologist Jennifer Smith talks about the properties and history of the superfood seaweed. Series: "Jeffrey B. Graham Perspectives on Ocean Science Lecture Series" [Science] [Show ID: 35070]

Join Dr. Jennifer Smith and entrepreneur Brant Chlebowski as they tell the story of their collaboration on applied aquaculture research of commercially valuable seaweeds – research that has sparked the formation of the California Seaweed Company and a new area of research in the Smith lab related to food and feed uses of local seaweeds. Series: "Jeffrey B. Graham Perspectives on Ocean Science Lecture Series" [Science] [Show ID: 34570]

Join Dr. Jennifer Smith and entrepreneur Brant Chlebowski as they tell the story of their collaboration on applied aquaculture research of commercially valuable seaweeds – research that has sparked the formation of the California Seaweed Company and a new area of research in the Smith lab related to food and feed uses of local seaweeds. Series: "Jeffrey B. Graham Perspectives on Ocean Science Lecture Series" [Science] [Show ID: 34570]

Join Dr. Jennifer Smith and entrepreneur Brant Chlebowski as they tell the story of their collaboration on applied aquaculture research of commercially valuable seaweeds – research that has sparked the formation of the California Seaweed Company and a new area of research in the Smith lab related to food and feed uses of local seaweeds. Series: "Jeffrey B. Graham Perspectives on Ocean Science Lecture Series" [Science] [Show ID: 34570]

Join Dr. Jennifer Smith and entrepreneur Brant Chlebowski as they tell the story of their collaboration on applied aquaculture research of commercially valuable seaweeds – research that has sparked the formation of the California Seaweed Company and a new area of research in the Smith lab related to food and feed uses of local seaweeds. Series: "Jeffrey B. Graham Perspectives on Ocean Science Lecture Series" [Science] [Show ID: 34570]

Over billions of years, nature has developed materials, objects and processes that function from the macroscale to the nanoscale. Many organisms and objects — including bacteria; plants; animals; and seashells — possess properties of commercial interest. The emerging field of biomimetics allows scientists to mimic biology or nature to develop eco-friendly nanomaterials, nanodevices and systems with desirable properties. This talk will present an overview of the field of biomimetics and biologically inspired surfaces.

A global shift to driverless vehicles could create a dream scenario in which traffic congestion and emissions contributing to climate change plummet by 50 percent or more by 2050. Dan Sperling, Director of the Institute of Transportation Studies at UC Davis, talks about the change on the horizon, with comments from Emily Castor Warren, Senior Director of Transportation Policy at Lyft, and Sacramento Mayor, Darrell Steinberg. Series: "UCTV Prime" [Public Affairs] [Science] [Show ID: 34113]

A global shift to driverless vehicles could create a dream scenario in which traffic congestion and emissions contributing to climate change plummet by 50 percent or more by 2050. Dan Sperling, Director of the Institute of Transportation Studies at UC Davis, talks about the change on the horizon, with comments from Emily Castor Warren, Senior Director of Transportation Policy at Lyft, and Sacramento Mayor, Darrell Steinberg. Series: "UCTV Prime" [Public Affairs] [Science] [Show ID: 34113]

Undoubtedly solar energy will be part of the solution in regards to the affects of climate change, but is siting solar energy installations on public lands, such as in the Mojave Desert, the best place to do so? UC Davis researchers are looking at the effects of human development in the Mojave Desert and where other locations may be to site solar energy other than undisturbed landscapes and agriculture fields. Series: "UCTV Prime" [Science] [Show ID: 34099]

Undoubtedly solar energy will be part of the solution in regards to the affects of climate change, but is siting solar energy installations on public lands, such as in the Mojave Desert, the best place to do so? UC Davis researchers are looking at the effects of human development in the Mojave Desert and where other locations may be to site solar energy other than undisturbed landscapes and agriculture fields. Series: "UCTV Prime" [Science] [Show ID: 34099]

Undoubtedly solar energy will be part of the solution in regards to the affects of climate change, but is siting solar energy installations on public lands, such as in the Mojave Desert, the best place to do so? UC Davis researchers are looking at the effects of human development in the Mojave Desert and where other locations may be to site solar energy other than undisturbed landscapes and agriculture fields. Series: "UCTV Prime" [Science] [Show ID: 34099]

Eva Cisneros is a fourth-year student at UC Merced and seeks to improve campus life by offering the community a space to access nature and by providing a site for academic education and research through a UC Merced arboretum. Modeled on the UC Davis arboretum, Merced's site would follow the existing canal, cover five acres, and be focused on the unique climate, drought-tolerant plants and sustainable landscaping. Series: "Sustainable California" [Science] [Show ID: 33863]

William Fernandez is a third-year student at UC Merced who is an avid bike rider. He develops bike-friendly improvements to the two main roads to campus, Bellevue and Lake Roads. With his research, he details simple solutions while indicating that the alternatives are more taxing on the environment. His call to action to improve transit for many of the 8,000 students is titled BUSC: Balance, Update, Solar and Core. William hopes that the repairs to the bike lanes will help students feel safe to ride their bikes, supporting an environmentally friendly commute option to campus and around the city. Series: "Sustainable California" [Science] [Show ID: 33862]