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Thermal Synthesis of Carbamic Acid and Its Dimer in Interstellar Ices: A Reservoir of Interstellar Amino Acids.
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Nov 2023 – Feb 2024Where it's discussed
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The discussions reflect a strong interest and engagement, with examples like 'new issue is live' and 'front cover story,' indicating attention to the publication’s importance, while phrases such as 'provides a feedstock for amino acids' signal recognition of the research's potential impact on understanding prebiotic molecules in space.
Many discussions emphasize the significance of the research, with phrases like 'A Factory of the Origin-of-Life Molecules' and 'Provides a feedstock for amino acids,' indicating strong support and recognition of its importance.
Posts show high interest, highlighted by expressions such as 'NEW issue is now live' and 'Front cover story,' demonstrating enthusiasm and curiosity about the research findings.
Numerous discussions reference specific details like the temperature conditions and the implications for prebiotic chemistry, showing deep engagement and consideration of the study's implications.
The mention of the research as a potential reservoir for amino acids and its relevance to the origins of life underscores a perceived high impact within the scientific community and broader considerations of astrochemistry and astrobiology.
Abstract in brief
- The study demonstrates that interstellar ices composed of carbon dioxide and ammonia can produce carbamic acid and its salt, ammonium carbamate, through thermal reactions at very low temperatures (around 62 K and 39 K respectively), without the need for energetic radiation.
- Using infrared spectroscopy and mass spectrometry, the research shows that carbamic acid can sublimate from its precursor compounds, remaining stable as a gas phase molecule up to about 290 K, similar to conditions in protoplanetary disks, making it a potential reservoir of amino acids in star and planet formation environments.
- The formation and stability of carbamic acid and its dimers in interstellar ices suggest these molecules could be key building blocks for complex amino acids, supporting the idea that prebiotic molecules can form in space independently of energetic radiation.]
Top posts
Most liked on X and BlueskyThe carbamic acid dimer forms & remains in model interstellar ice at temperatures up to 290 K. Near young stellar objects it would provide a feedstock for amino acids needed for the origins of life. NEW #ASAP by Ralf Kaiser, Agnes Chang & team Read here: https://t.co/QcKmb9r499 https://t.co/0BecYusGFA
Thermal Synthesis of Carbamic Acid and Its Dimer in Interstellar Ices: A Reservoir of Interstellar Amino Acids #MyACSCover https://t.co/ktGsxUBLyj
L'àcid carbàmic, que serveix de base per a la síntesi de biomolècules complexes, es pot originar en el fred espai interestel·lar, segons un estudi d'investigadors dels Estats Units i de Taiwan @JuliPereto https://t.co/HASnT7PKTu
ARTÍCULO REFERENCIA (acceso abierto) Thermal Synthesis of Carbamic Acid and Its Dimer in Interstellar Ices: A Reservoir of Interstellar Amino Acids https://t.co/GsF1flVLcN vía #ACSCentralScience https://t.co/7Lazd45iDO
Interstellar Ices: A Factory of the Origin-of-Life Molecules NEW #FirstReactions by @CPuzzarini & co-workers @Unibo discussing work by Ralf Kaiser, Agnes Chang & co-workers https://t.co/NrWF3tR9Yt Read it here: https://t.co/hyBsNIWmFy https://t.co/u8sfv9yBei
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A new study suggests that molecules essential for life, like carbamic acid and ammonium carbamate, formed in interstellar ices and could be transported to Earth, supporting the idea that space contributes to the origin…
RT @ACSCentSci: Read our latest article #InTheNews
Read our latest article #InTheNews
RT @ACSCentSci: Interstellar Ices: A Factory of the Origin-of-Life Molecules NEW #FirstReactions by @CPuzzarini & co-workers @Unibo discu…
Interstellar Ices: A Factory of the Origin-of-Life Molecules NEW #FirstReactions by @CPuzzarini & co-workers @Unibo discussing work by Ralf Kaiser, Agnes Chang & co-workers https://t.co/NrWF3tR9Yt Read it here: https://t.co/hyBsNIWmFy https://t.co/u8sfv9yBei
Thermal Synthesis of Carbamic Acid and Its Dimer in Interstellar Ices: A Reservoir of Interstellar Amino Acids https://t.co/q2bupq7JxY https://t.co/J5DMMFDLkZ
Our NEW issue is now live! Read it here: https://t.co/rxfTniYwtf Front cover story by Ralf Kaiser, Agnes Chang & co-workers https://t.co/a9QfHumzBI https://t.co/ABSJwroeJT
Thermal Synthesis of Carbamic Acid and Its Dimer in Interstellar Ices: A Reservoir of Interstellar Amino Acids #MyACSCover https://t.co/ktGsxUBLyj
The carbamic acid dimer forms & remains in model interstellar ice at temperatures up to 290 K. Near young stellar objects it would provide a feedstock for amino acids needed for the origins of life. NEW #ASAP by Ralf Kaiser, Agnes Chang & team Read here: https://t.co/QcKmb9r499 https://t.co/0BecYusGFA
Thermal Synthesis of Carbamic Acid and Its Dimer in Interstellar Ices: A Reservoir of Interstellar Amino Acids https://t.co/IiQcnsLar0 + info: Thermal Synthesis of Carbamic Acid and Its Dimer in Interstellar Ices: A Reservoir of Interstellar Amino Acids https://t.co/7ipXmtBOPr
ARTÍCULO REFERENCIA (acceso abierto) Thermal Synthesis of Carbamic Acid and Its Dimer in Interstellar Ices: A Reservoir of Interstellar Amino Acids https://t.co/GsF1flVLcN vía #ACSCentralScience https://t.co/7Lazd45iDO
RT @xduran_e: L'àcid carbàmic, que serveix de base per a la síntesi de biomolècules complexes, es pot originar en el fred espai interestel·…
L'àcid carbàmic, que serveix de base per a la síntesi de biomolècules complexes, es pot originar en el fred espai interestel·lar, segons un estudi d'investigadors dels Estats Units i de Taiwan @JuliPereto https://t.co/HASnT7PKTu