#auxin — Public Fediverse posts

#Arabidopsis root growth is known to be suppressed under low Pi conditions. Here, Zhang et al. report that this #growth inhibition is caused by the collapse of #auxin transport in the presence of accumulated iron.
https://doi.org/10.1111/jipb.70090
@WileyLifeSci
#PlantSci #JIPB #physiology #botany

#Arabidopsis root growth is known to be suppressed under low Pi conditions. Here, Zhang et al. report that this #growth inhibition is caused by the collapse of #auxin transport in the presence of accumulated iron.
https://doi.org/10.1111/jipb.70090
@WileyLifeSci
#PlantSci #JIPB #physiology #botany

“Whoever oppresses the poor shows contempt for their Maker, but whoever is kind to the needy honors God”*…

It’s easy to feel hope in the advances that the world has made in eraditcating extreme poverty over the last several decades. But as Max Roser writes, unless the poorest economies start growing, this period of progress against the worst form of poverty is over…

In the last decades, the world has made fantastic progress against extreme poverty. In 1990, 2.3 billion people lived in extreme poverty. Since then, the number of extremely poor people has declined by 1.5 billion people.

This means on any average day in the last 35 years, about 115,000 people left extreme poverty behind.1 Leaving the very worst poverty behind doesn’t mean a life free of want, but it does mean a big change. Additional income matters most for those who have the least. It means having the chance to leave hunger behind, to gain access to clean water, to access better healthcare, and to have at least some electricity — for light at night and perhaps even to cook and heat.

Can we expect this rapid progress to continue?

Unfortunately, we cannot. Based on current trends, progress against extreme poverty will come to a halt. As we’ll see, the number of people in extreme poverty is projected to decline, from 831 million people in 2025 to 793 million people in 2030. After 2030, the number of extremely poor people is expected to increase.

To understand why the rapid progress against deep poverty will not continue into the future, we need to know why the world made progress in the past.

Extreme poverty declined in the last three decades because, back in the 1990s, the majority of the poorest people on the planet lived in countries that subsequently achieved very fast economic growth. In Indonesia and China, more than two-thirds of the population lived in extreme poverty. But these economies then grew rapidly, so that by today, the share has declined to less than 10%. Other large Asian countries — including India, Pakistan, Bangladesh, and the Philippines — also achieved strong growth, and as a consequence, the share living in extreme poverty declined rapidly. Much of the progress happened in Asia, but conditions in other regions improved too: the share living in extreme poverty also declined in Ghana, Cape Verde, Cameroon, Panama, Bolivia, Mexico, Brazil, and many other countries.

This chart shows the economic change in these countries over the past decades. As incomes increased, the share of people in extreme poverty declined.

Share of population living in extreme poverty vs. GDP per capita, 1990 to 2024 (World Bank, Eurostat, OECD, IMF)

What is different today is that the majority of the world’s poorest people are stuck in economies that have been stagnating for a long time.Consider the case of Madagascar. In the long run, the country has not seen any growth at all: GDP per capita in Madagascar is about the same today as it was in 1950. As a consequence, the number of people in extreme poverty increased in line with the country’s population growth. In richer countries, it is possible to reduce poverty by reducing inequality through redistribution, but a country like Madagascar cannot reduce its share of people in extreme poverty through redistribution. This is because the mean income is lower than the poverty line; if everyone had the same income, everyone would be living in extreme poverty.

The situation is similar in other countries, as the chart below shows: in the Democratic Republic of Congo, Mozambique, Malawi, Burundi, and the Central African Republic, more than half of the population lives in extreme poverty. As their economies have stagnated, the deep poverty that most people live in has remained largely unchanged for decades.

This is why we have to expect the end of progress against extreme poverty based on current trends. If the poorest economies remain stagnant, hundreds of millions of people will continue to live in extreme poverty.

Share of population living in extreme poverty, 1992-2022 (World Bank)

I’m always skeptical when people say that we are at a juncture in history where the future looks much different than the past. But when it comes to the fight against extreme poverty, I fear it is true. Today, the majority of the world’s poorest people are living in economies that have not achieved economic growth in the recent past… Based on current trends, we have to expect the end of progress against extreme poverty…

… It’s no news that we should expect an end to progress against extreme poverty. This article is an update of an article I published in 2019, in which I wrote the same: the fact that the poorest economies are not growing means that the rapid progress against extreme poverty seen in the last decades will end.

Although this prospect has been known for years, it has hardly received the attention it deserves. Progress against extreme poverty was one of humanity’s most outstanding achievements of the past decades — the end of it would be one of the very worst realities of the coming ones.

Importantly, however, these projections are not predictions; their purpose is not to describe what the world in 2030 or 2040 will certainly look like. These projections describe what we have to expect based on current trends; they tell us about our present world rather than the reality of tomorrow. Current trends don’t have to become future facts: many countries left extreme poverty behind in the past, because they had a moment at which they broke out of stagnation.

What these projections tell us, however, is that if the poorest countries do not start to grow, a very bleak future is ahead of us: a future in which extreme poverty remains the reality for hundreds of millions for many years to come…

Eminently worth reading in full– and acting on: “The end of progress against extreme poverty?” from @maxroser.bsky.social and @ourworldindata.org.

* Proverbs 14:31, NIV

###

As we put our shoulders to the wheel, we might spare a thought for a man who contributed mightily to our capacity to feed humanity, Kenneth V. Thimann; he died on this date in 1997. A microbiologist, he was a pioneer in plant physiology (especially the hormones that control the development of plants). Building on the thinking of Frits Went, he identified the first plant hormone to be discovered– the first auxin, a class of growth hormones, and revealed its chemical structure– which proved very important to agriculture and its yields.

source

“Whoever oppresses the poor shows contempt for their Maker, but whoever is kind to the needy honors God”*…

It’s easy to feel hope in the advances that the world has made in eraditcating extreme poverty over the last several decades. But as Max Roser writes, unless the poorest economies start growing, this period of progress against the worst form of poverty is over…

In the last decades, the world has made fantastic progress against extreme poverty. In 1990, 2.3 billion people lived in extreme poverty. Since then, the number of extremely poor people has declined by 1.5 billion people.

This means on any average day in the last 35 years, about 115,000 people left extreme poverty behind.1 Leaving the very worst poverty behind doesn’t mean a life free of want, but it does mean a big change. Additional income matters most for those who have the least. It means having the chance to leave hunger behind, to gain access to clean water, to access better healthcare, and to have at least some electricity — for light at night and perhaps even to cook and heat.

Can we expect this rapid progress to continue?

Unfortunately, we cannot. Based on current trends, progress against extreme poverty will come to a halt. As we’ll see, the number of people in extreme poverty is projected to decline, from 831 million people in 2025 to 793 million people in 2030. After 2030, the number of extremely poor people is expected to increase.

To understand why the rapid progress against deep poverty will not continue into the future, we need to know why the world made progress in the past.

Extreme poverty declined in the last three decades because, back in the 1990s, the majority of the poorest people on the planet lived in countries that subsequently achieved very fast economic growth. In Indonesia and China, more than two-thirds of the population lived in extreme poverty. But these economies then grew rapidly, so that by today, the share has declined to less than 10%. Other large Asian countries — including India, Pakistan, Bangladesh, and the Philippines — also achieved strong growth, and as a consequence, the share living in extreme poverty declined rapidly. Much of the progress happened in Asia, but conditions in other regions improved too: the share living in extreme poverty also declined in Ghana, Cape Verde, Cameroon, Panama, Bolivia, Mexico, Brazil, and many other countries.

This chart shows the economic change in these countries over the past decades. As incomes increased, the share of people in extreme poverty declined.

Share of population living in extreme poverty vs. GDP per capita, 1990 to 2024 (World Bank, Eurostat, OECD, IMF)

What is different today is that the majority of the world’s poorest people are stuck in economies that have been stagnating for a long time.Consider the case of Madagascar. In the long run, the country has not seen any growth at all: GDP per capita in Madagascar is about the same today as it was in 1950. As a consequence, the number of people in extreme poverty increased in line with the country’s population growth. In richer countries, it is possible to reduce poverty by reducing inequality through redistribution, but a country like Madagascar cannot reduce its share of people in extreme poverty through redistribution. This is because the mean income is lower than the poverty line; if everyone had the same income, everyone would be living in extreme poverty.

The situation is similar in other countries, as the chart below shows: in the Democratic Republic of Congo, Mozambique, Malawi, Burundi, and the Central African Republic, more than half of the population lives in extreme poverty. As their economies have stagnated, the deep poverty that most people live in has remained largely unchanged for decades.

This is why we have to expect the end of progress against extreme poverty based on current trends. If the poorest economies remain stagnant, hundreds of millions of people will continue to live in extreme poverty.

Share of population living in extreme poverty, 1992-2022 (World Bank)

I’m always skeptical when people say that we are at a juncture in history where the future looks much different than the past. But when it comes to the fight against extreme poverty, I fear it is true. Today, the majority of the world’s poorest people are living in economies that have not achieved economic growth in the recent past… Based on current trends, we have to expect the end of progress against extreme poverty…

… It’s no news that we should expect an end to progress against extreme poverty. This article is an update of an article I published in 2019, in which I wrote the same: the fact that the poorest economies are not growing means that the rapid progress against extreme poverty seen in the last decades will end.

Although this prospect has been known for years, it has hardly received the attention it deserves. Progress against extreme poverty was one of humanity’s most outstanding achievements of the past decades — the end of it would be one of the very worst realities of the coming ones.

Importantly, however, these projections are not predictions; their purpose is not to describe what the world in 2030 or 2040 will certainly look like. These projections describe what we have to expect based on current trends; they tell us about our present world rather than the reality of tomorrow. Current trends don’t have to become future facts: many countries left extreme poverty behind in the past, because they had a moment at which they broke out of stagnation.

What these projections tell us, however, is that if the poorest countries do not start to grow, a very bleak future is ahead of us: a future in which extreme poverty remains the reality for hundreds of millions for many years to come…

Eminently worth reading in full– and acting on: “The end of progress against extreme poverty?” from @maxroser.bsky.social and @ourworldindata.org.

* Proverbs 14:31, NIV

###

As we put our shoulders to the wheel, we might spare a thought for a man who contributed mightily to our capacity to feed humanity, Kenneth V. Thimann; he died on this date in 1997. A microbiologist, he was a pioneer in plant physiology (especially the hormones that control the development of plants). Building on the thinking of Frits Went, he identified the first plant hormone to be discovered– the first auxin, a class of growth hormones, and revealed its chemical structure– which proved very important to agriculture and its yields.

source

Can you have the best of both worlds? Xu et al. think so!
They report that the artificial thiourea derivative, Y21, serves as a GA-signaling agonist *and* an #auxin analog, promoting #seed germination and #root #development.

➡️https://doi.org/10.1111/jipb.70068
@WileyLifeSci
#JIPB #CropSci

How do #plants dynamically modulate their shoot branching for optimal returns? This @slcuplants study shows that the TF BRC1 modulates bud competitiveness by reducing #auxin efflux, integrating hormonal cues to fine-tune branching patterns @PLOSBiology 🧪 https://plos.io/4pnrwY2

How do #plants dynamically modulate their shoot branching for optimal returns? This @slcuplants study shows that the TF BRC1 modulates bud competitiveness by reducing #auxin efflux, integrating hormonal cues to fine-tune branching patterns @PLOSBiology 🧪 https://plos.io/4pnrwY2

More #free #PlantScience? We thought you'd never ask!
Get a sneak peek at this remarkable work by Zhang et al. that reveals how scaffold #protein RACK1 regulates #root #growth and gravitropic response.
🔓👇
https://doi.org/10.1111/jipb.13858
@wileyplantsci
#JIPB #auxin #Arabidopsis #botany

🌼 Flowers unfold with surprising precision, despite unruly genes

https://phys.org/news/2025-05-unfold-precision-unruly-genes.html

#flowers #plants #botany #genomics #omics #molbio #auxin

🌼 Flowers unfold with surprising precision, despite unruly genes

https://phys.org/news/2025-05-unfold-precision-unruly-genes.html

#flowers #plants #botany #genomics #omics #molbio #auxin

Pflanzen üben auf den Biologen & Wittgenstein-Preisträger Jiří Friml eine besondere Faszination aus. Er hat die Funktion des Hormons #Auxin als Vermittler zw. Umgebung und Zellkommunikation in #Pflanzen entdeckt.
@istaustria 🌿

Video-Porträt Jiří Friml ▶️
https://scilog.fwf.ac.at/magazin/pflanzen-koennen-nicht-weglaufen

Pflanzen üben auf den Biologen & Wittgenstein-Preisträger Jiří Friml eine besondere Faszination aus. Er hat die Funktion des Hormons #Auxin als Vermittler zw. Umgebung und Zellkommunikation in #Pflanzen entdeckt.
@istaustria 🌿

Video-Porträt Jiří Friml ▶️
https://scilog.fwf.ac.at/magazin/pflanzen-koennen-nicht-weglaufen

How about some #free #PlantScience for your Friday?
In this sneak peek of their new study, Zhang et al. reveal how scaffold protein RACK1 regulates #root #growth and gravitropic response.
🔓👇
https://doi.org/10.1111/jipb.13858
@wileyplantsci
#JIPB #auxin #Arabidopsis #PINOID #botany

For crop plants like #wheat, #plant height is essential for field performance and regional adaptability. Here, Hao et al. explore the regulatory role of miR319 in common wheat height. https://doi.org/10.1111/jipb.13759
@wileyplantsci
#PlantSci #JIPB #auxin #CropSci #botany

How do plant-associated #microbiota regulate #plant hormones? @leidai_CAS &co reveal that #bacteria associated with #Arabidopsis & rice roots can degrade the #auxin IAA, mitigating the root inhibition caused by IAA-producing bacteria #PLOSBiology https://plos.io/3Oqzgaq

How do plant-associated #microbiota regulate #plant hormones? @leidai_CAS &co reveal that #bacteria associated with #Arabidopsis & rice roots can degrade the #auxin IAA, mitigating the root inhibition caused by IAA-producing bacteria #PLOSBiology https://plos.io/3Oqzgaq

Auxin-mediated xylem modifications in tomato mutant dgt improve drought resistance and hydraulic recovery 🌱🧪

👉 https://www.mauromaver.eu/posts/posts_omnia/focus_II/3/

#Science #Research #PlantScience #Academia #Plant #Auxin #Drought #Tomato #ScientificWriting #editorial

Wang et al. identify a novel OsMAPK5–OsWRKY72 module that negatively regulates #grain length and weight in #rice, providing promising targets for breeding varieties with high #yield and quality. https://doi.org/10.1111/jipb.13786
@wileyplantsci
#JIPB #MolecularBiology #PlantSci #auxin #botany

Anchorene, an endogenous #bioactive carotenoid-derived dialdehyde and diapocarotenoid, affects #root #development by modulating #auxin homeostasis. Find out how in a new paper by Ke et al.👇#OpenAccess
https://doi.org/10.1111/jipb.13764
@wileyplantsci
#JIPB #PlantSci #botany

Meet Richard Napier, a JXB handling #editor who oversees manuscripts covering various topics such as #auxin, #protein structure, #signalling, receptors, #biosensors, #aptamers, #cytokinins, and chemical #biology 🌱

Meet Richard Napier, a JXB handling #editor who oversees manuscripts covering various topics such as #auxin, #protein structure, #signalling, receptors, #biosensors, #aptamers, #cytokinins, and chemical #biology 🌱

In a #crop science breakthrough, Chen et al. report that CsRAXs negatively regulate #leaf size and #fruiting ability in #cucumber! https://doi.org/10.1111/jipb.13655
@wileyplantsci
#PlantSci #auxin #leaf #yield #food #botany

"The research revealed that ZmPILS6 localizes to the endoplasmic reticulum and plays a vital role in controlling the spatial distribution of indole-3-acetic acid (IAA or “auxin”) in primary roots. The study also demonstrated that ZmPILS6 can actively efflux IAA when expressed in yeast. Furthermore, the loss of ZmPILS6 resulted in significant proteome remodeling in #maize roots, particularly affecting hormone signaling pathways" #auxin #plants #food #crops

https://www.pnas.org/doi/10.1073/pnas.2313216121

"The research revealed that ZmPILS6 localizes to the endoplasmic reticulum and plays a vital role in controlling the spatial distribution of indole-3-acetic acid (IAA or “auxin”) in primary roots. The study also demonstrated that ZmPILS6 can actively efflux IAA when expressed in yeast. Furthermore, the loss of ZmPILS6 resulted in significant proteome remodeling in #maize roots, particularly affecting hormone signaling pathways" #auxin #plants #food #crops

https://www.pnas.org/doi/10.1073/pnas.2313216121

Advancing #fruit #crop resilience: Unveiling the molecular dynamics of #abscission in woody fruit crops.

#HSL2 #signaling #auxin

https://phys.org/news/2024-05-advancing-fruit-crop-resilience-unveiling.html

Advancing #fruit #crop resilience: Unveiling the molecular dynamics of #abscission in woody fruit crops.

#HSL2 #signaling #auxin

https://phys.org/news/2024-05-advancing-fruit-crop-resilience-unveiling.html

Now, THIS is a breakthrough–quite literally!
In a new #OpenAccess paper for #JIPB, Ma et al. elucidate the mechanism connecting the interplay between #auxin and #ethylene and the molecular events that initiate #abscission in litchi.
https://doi.org/10.1111/jipb.13646
Wiley Plant Science
#PlantSci #development #Botany

Wounded plants: how they coordinate their healing

In a new study, scientists unraveled the mystery behind how wounded plants coordinate their healing. By investigating the role of the hormone Auxin and pressure changes, they discovered the intricate cellular mechanisms guiding plant regeneration. This understanding sheds light on how plants adapt and survive in challenging environments.

https://globalplantcouncil.org/wounded-plants-how-they-coordinate-their-healing-2/ #PlantScience #PlantSci #Plants #Environment #Auxin #PlantRegeneration #Science

🍅Wait, should it be #TomatoThursday or #ThomatoThursday? In this week's feature, Dong et al. reveal that SlBEL11 regulates #flavonoid biosynthesis, fine-tuning #auxin efflux to prevent premature #fruit drop. https://doi.org/10.1111/jipb.13627
#PlantScience #botany #PlantSci #CropSci 🍅

@[email protected] Thread: Ein Jahr später
#pflanzen #Pflanze #Balkonien #Phytohormon #Auxin #Apikaldominanz #Garten #Rosen #Obst

@[email protected] Thread: Ein Jahr später
#pflanzen #Pflanze #Balkonien #Phytohormon #Auxin #Apikaldominanz #Garten #Rosen #Obst

Researchers Decipher Mysterious Growth Habit of Weeping Peach Trees https://blog.aspb.org/researchers-decipher-mysterious-growth-habit-of-weeping-peach-trees/

Defying Gravity: WEEP promotes negative #gravitropism in peach #trees by establishing asymmetric auxin gradients https://academic.oup.com/plphys/advance-article/doi/10.1093/plphys/kiae085/7608990

"Their results show how a DNA deletion in just one gene completely changes the localization of the hormone #auxin, which then leads to shoots intentionally growing downwards, like roots."

Researchers Decipher Mysterious Growth Habit of Weeping Peach Trees https://blog.aspb.org/researchers-decipher-mysterious-growth-habit-of-weeping-peach-trees/

Defying Gravity: WEEP promotes negative #gravitropism in peach #trees by establishing asymmetric auxin gradients https://academic.oup.com/plphys/advance-article/doi/10.1093/plphys/kiae085/7608990

"Their results show how a DNA deletion in just one gene completely changes the localization of the hormone #auxin, which then leads to shoots intentionally growing downwards, like roots."

🪵*Wood* you like some #PlantScience reading?🌲🌳
Zhang et al. use in vitro SVT regeneration to show that #gibberellin treatment significantly promotes #auxin-induced #cambium reestablishment in Populus. https://doi.org/10.1111/jipb.13591
@wileyplantsci
#JIPB #trees #phytohormones #PlantSci #Botany

#Plant #roots mysteriously #pulsate and we don't know why—but finding out could change the way we grow things.

#proteins #meristem #signalling #auxin #repressors #genes

https://theconversation.com/plant-roots-mysteriously-pulsate-and-we-dont-know-why-but-finding-out-could-change-the-way-we-grow-things-220350

#Plant #roots mysteriously #pulsate and we don't know why—but finding out could change the way we grow things.

#proteins #meristem #signalling #auxin #repressors #genes

https://theconversation.com/plant-roots-mysteriously-pulsate-and-we-dont-know-why-but-finding-out-could-change-the-way-we-grow-things-220350

Plant shade avoidance syndrome is controlled by APOLO #lncRNA regulation of #auxin-related genes in #Arabidopsis
Federico Ariel and colleagues
https://www.embopress.org/doi/full/10.15252/embj.2023113941

Plant shade avoidance syndrome is controlled by APOLO #lncRNA regulation of #auxin-related genes in #Arabidopsis
Federico Ariel and colleagues
https://www.embopress.org/doi/full/10.15252/embj.2023113941

Did you know that plants can be parasites too? 🌱

Our new special issue cover shows the parasitic plant, Striga, infecting rice roots. See Kirschner et al. (2023). 🌾

Read '#Auxin Research—Creating Tools for a Greener Future' here: https://academic.oup.com/jxb/issue 🔨 🌍

#Phytohormones #Environment #ParasiticPlant #SpecialIssue #Agriculture #Research

'The #maize transcription factor CCT regulates #drought tolerance by interacting with Fra a 1, E3 ligase WIPF2, and #auxin response factor Aux/IAA8'

...A-maiz-ing! 🌽

https://doi.org/10.1093/jxb/erad372

🌸 "Fruit set" is the #ovary-to-#fruit transition
🍒 Molecular, hormonal, and metabolic mechanisms of this process in horticultural #crops are reviewed here, including the role of SlIAA9 and SlDELLA/PROCERA in #tomato #auxin and #gibberellin #signalling.

https://bit.ly/46a2y4o

🌸 "Fruit set" is the #ovary-to-#fruit transition
🍒 Molecular, hormonal, and metabolic mechanisms of this process in horticultural #crops are reviewed here, including the role of SlIAA9 and SlDELLA/PROCERA in #tomato #auxin and #gibberellin #signalling.

https://bit.ly/46a2y4o

New paper. A total of about 10 years of work.

Approximately 40% of all proteins are intrinsically disordered or contain intrinsically disordered regions. So far, it was widely believed that these regions always had a random coil secondary structure. We show that this is not necessarily the case.

We applied the replica method to a generalized Langevin equation to describe the structure of AXR3, which is a co-receptor of the plant growth hormone auxin, and found that it adopts a number of distinct, different tertiary structures. Of these, two are particularly stable, almost equally probable, and account for 90% of the conformations. The results are confirmed by NMR spectroscopy and circular dichroism experiments. This shows that intrinsic disorder does not always mean a constantly disordered structure, such as a random coil or a Gaussian self-avoiding walk. Rather, disorder can arise as an ensemble effect of a glassy energy landscape, in which a protein can exist in a mixture of separate folded structures, with an energy barrier that may also induce symmetry breaking and the effective loss of ergodicity, depending on its height.

The fact that the first fully characterized example of such cases is a plant protein from the auxin system is an added bonus. 😎

#computationalbiology #biology #biophysics #statistical #physics #Complexity #ComplexSystems #plantbiology #hormones #auxin #moleculardynamics #simulation #NMR #circulardichroism #structure #disorder #IDP #IDR

https://www.pnas.org/doi/10.1073/pnas.2221286120

A #haustorium, the invasive organ of parasitic plants, intercepts water and nutrients from host plants.

This #review compares morphogenesis of three types of haustoria in Striga and Cuscuta, taking a closer look at the role of #auxin and #cytokinin 🔎

https://doi.org/10.1093/jxb/erad284

A #haustorium, the invasive organ of parasitic plants, intercepts water and nutrients from host plants.

This #review compares morphogenesis of three types of haustoria in Striga and Cuscuta, taking a closer look at the role of #auxin and #cytokinin 🔎

https://doi.org/10.1093/jxb/erad284

Plant-associated #bacteria can modulate levels of the plant hormone #auxin, affecting growth & yield of #crops. This study reveals how the bacterium #Variovorax uses proteins encoded by a novel gene cluster to degrade auxin #PLOSBiology https://plos.io/3NVvftZ

Plant-associated #bacteria can modulate levels of the plant hormone #auxin, affecting growth & yield of #crops. This study reveals how the bacterium #Variovorax uses proteins encoded by a novel gene cluster to degrade auxin #PLOSBiology https://plos.io/3NVvftZ

ARFs are plant TFs that respond to changes in #auxin level; study shows that D-clade ARFs, which lack DNA-binding domains and are found in #lycophytes & #bryophytes, are needed for auxin-regulated transcription in the model #moss Physcomitrium #PLOSBiology https://plos.io/3Nbe9YD

#Auxin-dependent regulation of cell division rates governs #Arabidopsis root #thermomorphogenesis

Marcel Quint and colleagues find a direct #temperature-sensing mechanism acting on cell proliferation in the apical #meristem to control #root growth

https://www.embopress.org/doi/10.15252/embj.2022111926

TOR acts as a metabolic gatekeeper for #auxin-dependent lateral root initiation in #Arabidopsis #thaliana
Emmanuel Gaquerel, Alexis Maizel and coworkers show that shoot-derived sugar activates #TOR signalling to initiate lateral #root formation.
https://www.embopress.org/doi/10.15252/embj.2022111273

Highlighted in issue 6: #Phytosulfokine balancing growth and defense in #plants

Reviews on HIF regulation of #metabolic crosstalk in tumor #microenvironment, and #evolutionary origins of #auxin responses

Further:
Phase separation of #Hippo signalling complexes
#Mitochondrial oxidative stress checkpoint via DNA-PKcs and ATM

Cover by @tatsuofukagawa1 and colleagues

https://www.embopress.org/toc/14602075/2023/42/6

Hatte ich letztes Jahr schon Mal gepostet, aber da waren noch viel weniger Gärtner hier am Start🌿🌳
Falls ihr ein schlafendes Auge zum Austrieb bringen wollt: Um die Knospe zum Austreiben zu bewegen wird direkt oberhalb ein kleines, die Knospe halb umgebendes, sichelmondförmiges Stück aus der Rinde bis zum Kambium herausgeschnitten. Mit diesem Schnitt wird der Saftfluss der Assimilate von der Krone zur Wurzel unterbunden @plants #Phytohormon #Auxin #Apikaldominanz #Garten #Rosen #Obst

New #Review:
The birth of a giant: evolutionary insights into the origin of auxin responses in plants
Dolf Weijers and colleagues provide an #evolutionary perspective on #auxin, the key regulator of #plant growth and development
https://www.embopress.org/doi/10.15252/embj.2022113018