Not exact matches
When these nanocomposites were incorporated
into leaf chloroplasts of living plants, the electron flow associated with
photosynthesis was enhanced
by 30 %.
Incorporation of CNTs enhanced electron flow associated with
photosynthesis by 49 % in extracted chloroplasts and
by 30 % in leaves of living plants, and incorporation of cerium oxide nanoparticles (nanoceria)
into extracted chloroplasts significantly reduced concentrations of superoxide, a compound that is toxic to plants.
To obtain sufficient moisture for
photosynthesis and growth, redwoods reach
into the air with leaves shaped like baseball mitts and capture the fog that rolls in
by night and languishes through most mornings.
Purdue University physicists are part of an international group using spinach to study the proteins involved in
photosynthesis, the process
by which plants convert the sun's energy
into carbohydrates used to power cellular processes.
Although about 2 petagrams go
into the oceans, another 1.1 to 2.2 petagrams — the missing sink — appears to vanish
into the land, likely taken up
by plants during
photosynthesis.
Nitrogen helps plants produce proteins, including the key molecules that control
photosynthesis, the process
by which the sun's energy is captured and converted
into the carbon compounds that are the raw material for growth.
As a possible step toward the goal of doubling food production
by 2050 to feed our expanding human population, researchers have transferred a key
photosynthesis gene from a blue - green algae
into a tobacco plant, according to a Nature news story.
Photosynthesis, the process
by which plants, algae, and select bacteria convert the sun's light energy
into chemical energy, takes place in a cellular organelle called the chloroplast.
Models suggest that incorporating the new enzymes
into wheat could increase
photosynthesis by up 20 % under some field conditions.
Professor Henry said
photosynthesis — the process
by which plants converted sunlight
into energy for growth and produce oxygen — was arguably the most important biological process on earth.
Photosynthesis is the process
by which plants convert energy from the sunlight
into chemical energy in the form of sugars.
Professor Colin Osborne, lead author of the study and Associate Director of the University's Grantham Centre for Sustainable Futures, said: «
Photosynthesis powers most life on Earth because it converts solar energy
into sugars which are used
by plants to grow.
«They allow us to look
into relationships between SIF and the gross primary production (GPP)-- the amount of carbon fixed
by plants through
photosynthesis — at scales never explored before.»
According to University of British Columbia (UBC) research published this week in Scientific Reports, 30 per cent of the microbes in the Democratic Republic of the Congo's Kabuno Bay grow
by a type of
photosynthesis that oxidizes (rusts) iron rather than converting water
into oxygen like plants and algae.
Plants carry out
photosynthesis by converting photons of light striking their chromophores
into another form of energy known as an exciton.
Everyone who took high school biology learned that
photosynthesis is the process
by which plants, algae and select bacteria transform the Sun's energy
into chemical energy during the daytime.
Some CO2 simply dissolves
into the water, but the rest is taken up
by phytoplankton during
photosynthesis.
Peering deep
into these proteins, Fleming and his colleagues at the University of California at Berkeley and at Washington University in St. Louis have discovered the driving engine of a key step in
photosynthesis, the process
by which plants and some microorganisms convert water, carbon dioxide, and sunlight
into oxygen and carbohydrates.
A new catalyst created
by U of T Engineering researchers brings them one step closer to artificial
photosynthesis — a system that, just like plants, would use renewable energy to convert carbon dioxide (CO2)
into stored chemical energy.
The system is inspired
by the process of
photosynthesis in plants to separate water
into hydrogen and oxygen.
Most plants rely on
photosynthesis, a process
by which they transform energy from the sun
into chemical energy that serves as a nutrient source.
Eventually, however, terrestrial red and green algae and the first lichens developed on land and the final big rise in oxygen may have been caused
by the «greening of the continents from around 800 million years ago,» when these simple early lifeforms on land steadily spread and broke down rocks that sustained a higher rate of erosion and led to the release of more nutrients
into the oceans that stimulated even more
photosynthesis by more newly evolved algae as well as older cyanobacteria (Nick Lane, New Scientist, February 10, 2010).
It is naturally present in air and is absorbed
by plants in
photosynthesis, a chemical reaction that turns sunlight
into food.
Photosynthesis is the process used
by plants and organisms to convert light energy
into stored chemical energy used to fuel their own needs.
JCAP is currently seeking additional funds to solve a key related challenge: How to transform hydrogen gas produced
by artificial
photosynthesis into a more useful fuel.
By following these isotopes into the food web, we can determine what fraction of a worm, a crayfish, or a fish was ultimately supported by terrestrial versus aquatic photosynthesi
By following these isotopes
into the food web, we can determine what fraction of a worm, a crayfish, or a fish was ultimately supported
by terrestrial versus aquatic photosynthesi
by terrestrial versus aquatic
photosynthesis.
But just to simplify, it is in these fireworks inside the mitochondria, where the oxygen we breathe may get a hold of an electron we ate that was pumped with energy
by plants (thanks to
photosynthesis), and transform that oxygen molecule
into what's called superoxide, which can damage our delicate cellular machinery — oxidize our cellular machinery.
Secular Animist: «I'd point out that humanity has always depended on what you call a «low quality» energy source for all of our food — which is solar energy transformed
into chemical energy
by photosynthesis.»
I'd point out that humanity has always depended on what you call a «low quality» energy source for all of our food — which is solar energy transformed
into chemical energy
by photosynthesis.
Up to 9 % of the incoming short wave radiation (400 - 700nm) is incorporated
into biomass
by photosynthesis, admittedly requiring other nutrients in optimal abundance.
Some may say that there is no such solution, but why is it that we refuse to look at how nature of millions of years has flourished,
by autotrophic life creating organic matter,
by using
photosynthesis to split water
into hydrogen and oxygen, while heterotrophic life takes this organic matter to release the energy it needs and return the oxygen and hydrogen back to water.
However, the carbon you exhale
into the atmosphere was recently removed from the atmosphere
by plants during
photosynthesis, yielding a net change of zero.
There are a lot of hypothetical deliberations on where this «missing» CO2 is going:
into increased terrestrial plant
photosynthesis or soil absorption, dissolved
into the ocean, where it is buffered chemically or converted
by photosynthesis from phytoplankton, entering the food chain and possibly getting converted to carbonates that eventually end up on the ocean floor,
into limestone through weathering or dissipated
into space, etc..
Looking at the carbon fixation - organic material decomposition as a linked process, one sees that some of the carbon fixed
by photosynthesis and incorporated
into plant tissue is perhaps delayed from returning to the atmosphere until it is oxidised
by decomposition or fire.
Radiocarbon is sequestered
by trees via
photosynthesis, moved to the ground, and finally released again
into the atmosphere.
This 3D - printed concept wheel
by tyre manufacturer Goodyear uses living moss to absorb moisture from the road, before converting it
into oxygen through
photosynthesis.
Although
photosynthesis is an effective means of producing food, wood products, and carbon stored in vegetation, it is an inefficient means of converting the energy in the sun's rays
into a form of non-food energy useable
by people.
Through the process of
photosynthesis, chlorophyll in plants captures the sun's energy
by converting carbon dioxide from the air and water from the ground
into carbohydrates — complex compounds composed of carbon, hydrogen, and oxygen.
In the short - term cycle, carbon in the atmosphere is turned
into plant material
by photosynthesis, then returned to the atmosphere
by processes like animal digestion.
The device is inspired
by the natural process of
photosynthesis, in which plants produce energy
by tapping on sunlight to separate water
into hydrogen and oxygen.
The system is inspired
by the process of
photosynthesis in plants to separate water
into hydrogen and oxygen.
JCAP is currently seeking additional funds to solve a key related challenge: How to transform hydrogen gas produced
by artificial
photosynthesis into a more useful fuel.
This indicates that replacing missing iron back
into the ocean could stimulate phytoplankton based
photosynthesis and generate improvements to the ocean ecosystem, while removing carbon dioxide from the atmosphere as it is consumed
by photosynthesis.
A potentially game - changing breakthrough in artificial
photosynthesis has been achieved with the development of a system that can capture carbon dioxide emissions before they are vented
into the atmosphere and then, powered
by solar energy, convert that carbon dioxide
into valuable chemical products, including biodegradable plastics, pharmaceutical drugs and even liquid fuels.
On land, vegetation absorbs CO2
by photosynthesis and converts it
into organic matter.
The Carbon Cycle
Photosynthesis takes CO 2 out of the atmosphere Cell Respiration
by all organisms puts CO 2
into the atmosphere Transfer.
These parameters regulate processes such as plant carbon uptake
by photosynthesis and how precipitation is separated
into evapotranspiration to the atmosphere and river runoff.
In contrast, fossil fuels come from ancient
photosynthesis, thus the carbon released
by burning had been stored for ages and thus represents a net addition
into the atmosphere.
The main natural sinks are the oceans and plants and other organisms that use
photosynthesis to remove carbon from the atmosphere
by incorporating it
into biomass.
It ALL came in as «light» and was transformed
into «heat» when absorbed
by the Surface,
into living things when
photosynthesis transformed it
into living things, and
into potential energy when raised
into the air
by evaporation, and
into wind and waves, and so on.