Sentences with phrase «photosynthesis system for»
Berkeley Lab researchers are using M. thermoacetica to perform photosynthesis — despite being non-photosynthetic — and also to synthesize semiconductor nanoparticles in a hybrid artificial photosynthesis system for converting sunlight into valuable chemical products.
http://newscenter.lbl.gov/ Not exact matches
«Understanding this system is indispensible for alternative energy research aiming to create artificial photosynthesis.»
The imaging system detects fluorescence emitted from chlorophyll, a pigment that gives plants their green color and is essential for absorbing the sunlight plants use to create energy through photosynthesis.
For example, in a recent Nature Physics paper, physicist Neill Lambert of the Advanced Science Institute in Japan called out new photosynthesis research as remarkable just for suggesting quantum effects can happen in biological systems at room temperatuFor example, in a recent Nature Physics paper, physicist Neill Lambert of the Advanced Science Institute in Japan called out new photosynthesis research as remarkable just for suggesting quantum effects can happen in biological systems at room temperatufor suggesting quantum effects can happen in biological systems at room temperature.
The simple system that we describe in this paper provides a model that can be further manipulated experimentally for studying those early stages in the evolution of photosynthesis.»
At Carnegie, he designed a system to identify Chlamydomonas mutants that are impaired in a process called nonphotochemical quenching (NPQ), which evolved because plants often absorb more light energy than can be used for photosynthesis.
This has great potential to improve our global data - driven estimates of photosynthesis and other fluxes between land and atmosphere that are relevant for the Earth System» says Martin Jung from MPI - BGC.
Berkeley Lab scientists at DOE's Joint Center for Artificial Photosynthesis are working to improve systems that efficiently convert sunlight, water and carbon dioxide into fuel.
Abstract: Ion conducting membranes are of interest for various energy applications including fuel cells and artificial photosynthesis systems.
The goal of this study was to strike a careful balance between the contradictory needs for efficient energy conversion and chemically sensitive electronic components to develop a viable system of artificial photosynthesis to generate clean fuel.
The system, which has been in the works for a total of five years, is a project of the Joint Center for Artificial Photosynthesis.
This seminar, intended for students from all academic majors, will examine the evolution of energy supply, energy demand and the global energy system as a whole, from the rise of photosynthesis to the development of agriculture, the Industrial revolution, and the modern, carbon - constrained world.
By combining biocompatible light - capturing nanowire arrays with select bacterial populations, a potentially game - changing new artificial photosynthesis system offers a win / win situation for the environment: solar - powered green chemistry using sequestered carbon dioxide.
University of Toronto researchers Xueli Zheng, left, and Bo Zhang test a previous catalyst for the artificial photosynthesis system.
As both an «electrograph» (meaning it can undergo direct electron transfers from an electrode), and an «acetogen» (meaning it can direct nearly 90 - percent of its photosynthetic products towards acetic acid), M. thermoacetica serves as the ideal model organism for demonstrating the capabilities of this hybrid artificial photosynthesis system.
Berkeley Lab scientists at DOE's Joint Center for Artificial Photosynthesis are working to improve systems that efficiently convert sunlight, water and carbon dioxide into fuel.
A recent paper led by Berkeley Lab researchers at the Joint Center for Artificial Photosynthesis leverages fundamental science to show how optimizing each component of an entire system can accomplish the goal of solar - powered fuel production with impressive rates of energy efficiency.
JCAP will capitalize on advanced capabilities developed during its initial five years of research, including sophisticated characterization tools and unique automated high - throughput experimentation that can quickly make and screen large libraries of materials to identify components for artificial photosynthesis systems.
By combining biocompatible light - capturing nanowire arrays with select bacterial populations, the new artificial photosynthesis system offers a win / win situation for the environment: solar - powered green chemistry using sequestered carbon dioxide.
Researchers at the Joint Center for Artificial Photosynthesis (JCAP) report the development of the first complete, efficient, safe, integrated solar - driven system — an «artificial leaf» — for splitting water to produce hydrogen.
A team at the Max Planck Institute for Solid State Research, Germany, and collaborators at ETH Zurich and the University of Cambridge, have developed a system that enables time - delayed photocatalytic hydrogen generation — essentially, an artificial photosynthesis system that can operate in the dark.
The goal of this study was to strike a careful balance between the contradictory needs for efficient energy conversion and chemically sensitive electronic components to develop a viable system of artificial photosynthesis to generate clean fuel.
But nobody has succeeded in making artificial multiple electron systems that could provide the necessary energy for artificial photosynthesis.
«Through our joint R&D efforts with Philips, we continue to innovate and perfect LED lighting for indoor growing systems that can maximize plant photosynthesis, while minimizing energy use for the most delicious and nutritious vegetables grown in a sustainable manner,» said Robert Colangelo, founding farmer / president of Green Sense Farms.
For that reason, chemists say the photosynthesis falls into a class of reactions known as multiple electron systems.
While the scientific challenges of producing such fuels are considerable, JCAP will capitalize on state - of - the - art capabilities developed during its initial five years of research, including sophisticated characterization tools and unique automated high - throughput experimentation that can quickly make and screen large libraries of materials to identify components for artificial photosynthesis systems.
Berkeley Lab researchers, working at the Joint Center for Artificial Photosynthesis (JCAP), have developed the first fully integrated microfluidic test - bed for evaluating and optimizing solar - driven electrochemical energy conversion systems.