news
« BACK
Chemistry - Life Sciences - 16.02.2023
Chemistry - Physics - 16.02.2023
Chemistry - Materials Science - 16.02.2023
Chemistry - Environment - 16.02.2023
Physics - Chemistry - 13.02.2023
Physics - Chemistry - 13.02.2023
Life Sciences - Chemistry - 13.02.2023
Chemistry - Astronomy / Space Science - 10.02.2023
Chemistry - Physics - 10.02.2023
Chemistry - Physics - 09.02.2023
Chemistry - Life Sciences - 09.02.2023
Life Sciences - Chemistry - 08.02.2023
Chemistry - Physics - 08.02.2023
Chemistry - 08.02.2023
Physics - Chemistry - 07.02.2023
Chemistry - Physics - 06.02.2023
Health - Chemistry - 06.02.2023
Life Sciences - Chemistry - 06.02.2023
Physics - Chemistry - 02.02.2023
Physics - Chemistry - 02.02.2023
Chemistry
Results 41 - 60 of 3173.
Efficient process for chemical terpene synthesis
A team of scientists led by Professor Tanja Gulder at Leipzig University's Institute of Organic Chemistry, together with colleagues from the University of Regensburg, has developed a simplified and efficient method for the artificial production of terpenes. Terpenes are a very extensive and diverse class of natural products that perform a wide range of functions in nature and are also used industrially.
A team of scientists led by Professor Tanja Gulder at Leipzig University's Institute of Organic Chemistry, together with colleagues from the University of Regensburg, has developed a simplified and efficient method for the artificial production of terpenes. Terpenes are a very extensive and diverse class of natural products that perform a wide range of functions in nature and are also used industrially.
How a Record-Breaking Copper Catalyst Converts CO2 Into Liquid Fuels
Since the 1970s, scientists have known that copper has a special ability to transform carbon dioxide into valuable chemicals and fuels. But for many years, scientists have struggled to understand how this common metal works as an electrocatalyst, a mechanism that uses energy from electrons to chemically transform molecules into different products.
Since the 1970s, scientists have known that copper has a special ability to transform carbon dioxide into valuable chemicals and fuels. But for many years, scientists have struggled to understand how this common metal works as an electrocatalyst, a mechanism that uses energy from electrons to chemically transform molecules into different products.
Using combustion to make better batteries
An MIT team is working to harness combustion to yield valuable materials, including some that are critical in the manufacture of lithium-ion batteries. Close For more than a century, much of the world has run on the combustion of fossil fuels. Now, to avert the threat of climate change, the energy system is changing.
An MIT team is working to harness combustion to yield valuable materials, including some that are critical in the manufacture of lithium-ion batteries. Close For more than a century, much of the world has run on the combustion of fossil fuels. Now, to avert the threat of climate change, the energy system is changing.
How to pull carbon dioxide out of seawater
A new method for removing the greenhouse gas from the ocean could be far more efficient than existing systems for removing it from the air. Close As carbon dioxide continues to build up in the Earth's atmosphere, research teams around the world have spent years seeking ways to remove the gas efficiently from the air.
A new method for removing the greenhouse gas from the ocean could be far more efficient than existing systems for removing it from the air. Close As carbon dioxide continues to build up in the Earth's atmosphere, research teams around the world have spent years seeking ways to remove the gas efficiently from the air.
Method found for analysing complex, tiny crystals
The atomic structure of solid substances can often be analysed quickly, easily and very precisely using X-rays. However, this requires that crystals of the corresponding substances exist. Chemist Professor Oliver Oeckler from Leipzig University and his team are developing methods to make this possible even for very small crystals that cannot be seen with the naked eye.
The atomic structure of solid substances can often be analysed quickly, easily and very precisely using X-rays. However, this requires that crystals of the corresponding substances exist. Chemist Professor Oliver Oeckler from Leipzig University and his team are developing methods to make this possible even for very small crystals that cannot be seen with the naked eye.
Method found for analyzing complicated, tiny crystals
Success after ten years of research: Three intergrown compounds discovered The atomic structure of solid substances can often be analyzed quickly, easily and very precisely using X-rays. However, this requires that crystals of the corresponding substances are available. Chemist Oliver Oeckler of the University of Leipzig and his team are developing methods to make this possible even for very small crystals that are invisible to the naked eye.
Success after ten years of research: Three intergrown compounds discovered The atomic structure of solid substances can often be analyzed quickly, easily and very precisely using X-rays. However, this requires that crystals of the corresponding substances are available. Chemist Oliver Oeckler of the University of Leipzig and his team are developing methods to make this possible even for very small crystals that are invisible to the naked eye.
Discovery could lead to new fungicides to protect rice crops
Blast disease destroys between 10% and 35% of the world's rice harvest each year. A new discovery could lead to fungicides that block the pathogen, Magnaporthe oryzae, from entering the leaves. This photo of a healthy rice field was taken in Chengdu, China, in 2019. A fungus that plagues rice crops worldwide gains entry to plant cells in a way that leaves it vulnerable to simple chemical blockers, a discovery that could lead to new fungicides to reduce the substantial annual losses of rice and other valuable cereals.
Blast disease destroys between 10% and 35% of the world's rice harvest each year. A new discovery could lead to fungicides that block the pathogen, Magnaporthe oryzae, from entering the leaves. This photo of a healthy rice field was taken in Chengdu, China, in 2019. A fungus that plagues rice crops worldwide gains entry to plant cells in a way that leaves it vulnerable to simple chemical blockers, a discovery that could lead to new fungicides to reduce the substantial annual losses of rice and other valuable cereals.
On the trail of the origin of life
A team of scientists from Austria and France has discovered a new abiotic pathway for the formation of peptide chains from amino acids - an important chemical step in the origin of life. The current study provides strong evidence that this crucial step for the emergence of life can indeed take place even in the very inhospitable conditions of space.
A team of scientists from Austria and France has discovered a new abiotic pathway for the formation of peptide chains from amino acids - an important chemical step in the origin of life. The current study provides strong evidence that this crucial step for the emergence of life can indeed take place even in the very inhospitable conditions of space.
A new key discovery for tracing the origins of life
Publication of the LGL-TPE in the Journal of Physical Chemistry A on January 11, 2023. Press realease of the Claude Bernard Lyon 1 University on February 10, 2023.
Publication of the LGL-TPE in the Journal of Physical Chemistry A on January 11, 2023. Press realease of the Claude Bernard Lyon 1 University on February 10, 2023.
Graphene aerogel particles for efficient water purification
Writing in the Journal of Molecular Liquids , a team led by Professor Aravind Vijayaraghavan based in the National Graphene Institute (NGI) have produced 3-dimensional particles made of graphene, of many interesting shapes, using a variation of the vortex ring effect. The same effect is used to produce smoke rings and is responsible for keeping dandelion seeds flying.
Writing in the Journal of Molecular Liquids , a team led by Professor Aravind Vijayaraghavan based in the National Graphene Institute (NGI) have produced 3-dimensional particles made of graphene, of many interesting shapes, using a variation of the vortex ring effect. The same effect is used to produce smoke rings and is responsible for keeping dandelion seeds flying.
Chemists create nanomachines by breaking them apart
Some "broken" nanomachines better sense their environment while others gain the ability to control their activity over time, researchers at Université de Montréal find. CONTENU - "Every act of creation," Picasso famously noted, "is first an act of destruction." Taking this concept literally, researchers in Canada have now discovered that "breaking" molecular nanomachines basic to life can create new ones that work even better.
Some "broken" nanomachines better sense their environment while others gain the ability to control their activity over time, researchers at Université de Montréal find. CONTENU - "Every act of creation," Picasso famously noted, "is first an act of destruction." Taking this concept literally, researchers in Canada have now discovered that "breaking" molecular nanomachines basic to life can create new ones that work even better.
Helpers in the Assembly of Cellular ’Protein Factories’
Ribosomes are the nanomachines of the cell whose task is the correct synthesis of proteins. Researchers at the Heidelberg University Biochemistry Center are studying the emergence of these "protein factories", also known as ribosomes. Led by Ed Hurt, they have decoded the special role of a heretofore unexplored biogenesis factor in the maturation of precursor ribosomes.
Ribosomes are the nanomachines of the cell whose task is the correct synthesis of proteins. Researchers at the Heidelberg University Biochemistry Center are studying the emergence of these "protein factories", also known as ribosomes. Led by Ed Hurt, they have decoded the special role of a heretofore unexplored biogenesis factor in the maturation of precursor ribosomes.
New method for targeted design of molecules
Potential applications include industrial processes, drug discovery and optoelectronics Engineering novel molecules and materials with specific properties can yield significant advances for industrial processes, drug discovery and optoelectronics. However, the search for novel molecules and materials is comparable to looking for a needle in a haystack, since the number of molecules in chemical space is of the unimaginable order of 10 to the power of 60.
Potential applications include industrial processes, drug discovery and optoelectronics Engineering novel molecules and materials with specific properties can yield significant advances for industrial processes, drug discovery and optoelectronics. However, the search for novel molecules and materials is comparable to looking for a needle in a haystack, since the number of molecules in chemical space is of the unimaginable order of 10 to the power of 60.
Making molecules faster: U-M discovery dramatically reduces time it takes to build molecules
With a big assist from artificial intelligence and a heavy dose of human touch, Tim Cernak's lab at the University of Michigan made a discovery that dramatically speeds up the time-consuming chemical process of building molecules that will be tomorrow's medicines, agrichemicals or materials. The discovery, published in the Feb.
With a big assist from artificial intelligence and a heavy dose of human touch, Tim Cernak's lab at the University of Michigan made a discovery that dramatically speeds up the time-consuming chemical process of building molecules that will be tomorrow's medicines, agrichemicals or materials. The discovery, published in the Feb.
Going small and thin for better hydrogen storage
A collaboration including scientists from Lawrence Livermore National Laboratory (LLNL), Sandia National Laboratories , the Indian Institute of Technology Gandhinagar and Lawrence Berkeley National Laboratory has created 3-4 nanometer ultrathin nanosheets of a metal hydride that increase hydrogen storage capacity.
A collaboration including scientists from Lawrence Livermore National Laboratory (LLNL), Sandia National Laboratories , the Indian Institute of Technology Gandhinagar and Lawrence Berkeley National Laboratory has created 3-4 nanometer ultrathin nanosheets of a metal hydride that increase hydrogen storage capacity.
AI lights the way for futuristic electronics – from bendy TVs to lightweight solar cells
AI lights the way for futuristic electronics - from bendy TVs to lightweight solar cells Artificial intelligence (AI) is transforming modern electronics - accelerating the design of bendable TV screens, ultra-lightweight revolutionised solar cells and more. In a study published in Nature today, scientists used a type of AI algorithm to create new molecules, suited for electronics that could come straight from a sci-fi movie.
AI lights the way for futuristic electronics - from bendy TVs to lightweight solar cells Artificial intelligence (AI) is transforming modern electronics - accelerating the design of bendable TV screens, ultra-lightweight revolutionised solar cells and more. In a study published in Nature today, scientists used a type of AI algorithm to create new molecules, suited for electronics that could come straight from a sci-fi movie.
Tailor-made Metal Complexes for Medical Diagnostics and Therapy
Heidelberg chemists study manganese, lutetium, and actinium compounds for potential applications in medicine Tailor-made chemical complexes of certain elements from the group of metals could be suitable for use in a special way in medical imaging as well as potential applications in personalised precision medicine.
Heidelberg chemists study manganese, lutetium, and actinium compounds for potential applications in medicine Tailor-made chemical complexes of certain elements from the group of metals could be suitable for use in a special way in medical imaging as well as potential applications in personalised precision medicine.
New polymers could enable better wearable devices
MIT engineers developed organic polymers that can efficiently convert signals from biological tissue into the electronic signals used in transistors. Close Certain electronics that integrate with the human body - a smartwatch that samples your sweat, for instance - work by converting the ion-based signals of biological tissue into the electron-based signals used in transistors.
MIT engineers developed organic polymers that can efficiently convert signals from biological tissue into the electronic signals used in transistors. Close Certain electronics that integrate with the human body - a smartwatch that samples your sweat, for instance - work by converting the ion-based signals of biological tissue into the electron-based signals used in transistors.
New form of ice is like a snapshot of liquid water
A collaboration between scientists at Cambridge and UCL has led to the discovery of a new form of ice that more closely resembles liquid water than any other and may hold the key to understanding this most famous of liquids. Our discovery of MDA raises many questions on the very nature of liquid water and so understanding MDA-s precise atomic structure is very important Michael Davies The new form of ice is amorphous.
A collaboration between scientists at Cambridge and UCL has led to the discovery of a new form of ice that more closely resembles liquid water than any other and may hold the key to understanding this most famous of liquids. Our discovery of MDA raises many questions on the very nature of liquid water and so understanding MDA-s precise atomic structure is very important Michael Davies The new form of ice is amorphous.
Discovery of new ice may change understanding of water
Researchers at UCL and the University of Cambridge have discovered a new type of ice that more closely resembles liquid water than any other known ices and that may rewrite our understanding of water and its many anomalies. The newly discovered ice is amorphous - that is, its molecules are in a disorganised form, not neatly ordered as they are in ordinary, crystalline ice.
Researchers at UCL and the University of Cambridge have discovered a new type of ice that more closely resembles liquid water than any other known ices and that may rewrite our understanding of water and its many anomalies. The newly discovered ice is amorphous - that is, its molecules are in a disorganised form, not neatly ordered as they are in ordinary, crystalline ice.
Environment - Mar 27
'It's very special to realize that my research really means something to people'
'It's very special to realize that my research really means something to people'
Life Sciences - Mar 27
U-M grad student receives national award for research on rewiring the brains of fruit flies
U-M grad student receives national award for research on rewiring the brains of fruit flies