#eic — Public Fediverse posts

https://www.europesays.com/pl/423365/ PKP Intercity. Wagony z KPO w pociągach komercyjnych. Dlaczego? #Biznes #Business #EIC #Griffin160 #Intercity #Kolej #KolejeMazowieckie #kpo #KrajowyPlanOdbudowy #PKP #PKPIntercity #PL #Poland #Polish #Polska #Polski #PołączeniaKomercyjne #PrzewozyKomercyjne #PrzewozyRegionalne #RozkładyJazdyPKP #RynekKolejowy

https://www.europesays.com/pl/413143/ Szlaki z Rodowodem! Tańsze bilety na pociągi relacji Trójmiasto – Warszawa – Kraków #BiletyKolejowe #ED250 #EIC #EIP #Intercity #Kolej #KolejeMazowieckie #krakow #pendolino #PKP #PKPIntercity #PL #Poland #Polish #Polska #Polski #promocja #PrzewozyRegionalne #RozkładyJazdyPKP #RynekKolejowy #SejmRP #TLK

Let's continue to #MeetTheTeam!

🔦Cristina Purtil is CEO of #PlioSurgical and brings years of #MedTech and product management experieince from the #US and #EU

ℹ️For more info, visit https://smartheal.eu/people/cristina-purtil/

#MedTech #Research #Innovation #EUFudning #EIC

#HorizonteEuropa. Subvenciones del Consejo Europeo de Innovación. #EIC 2026 Pathfinder Open. Convocatoria de propuestas HORIZON-EIC-2026-PATHFINDEROPEN. Fecha límite: 12.05.2026 | W3 Oportunidades de financiación y convocatorias de propuestas, 05.02.2026 #ayudasUE https://links.uv.es/04XOzu8

https://www.europesays.com/pl/228581/ Pendolino znika z Wrocławia. Wkrótce dużo szybciej do Warszawy #Biznes #Business #CMK #ED250 #EIC #Intercity #Kolej #KolejeMazowieckie #pendolino #PendolinoDoWrocławia #PKP #PKPIntercity #PKPPLK #PL #PociągWarszawaWrocław #Poland #Polish #Polska #Polski #PołączeniaKomercyjne #PrzewozyRegionalne #RozkładJazdy2025/2026 #RozkładJazdy2026/2027 #RozkładyJazdyPKP #RynekKolejowy

🚀 €2.5M to turn Nanotech into Hope for Epilepsy Patients.

I am thrilled to announce that www.clustrel.eu project will be funded by EISMEA!

We are developing a smart therapeutic management platform to provide relief for patients suffering from drug-resistant epilepsy.

I am honored to lead a Dream Team of world-class scientists, clinicians, and entrepreneurs.

#MedTech #EpilepsyAwareness #EIC #Bioengineering #StartUp #Innovation

The gluon cloud is exactly what QCD predicts.

“The HERA data are direct experimental proof that QCD describes nature,” Milner said.

But the young theory’s victory came with a bitter pill:

While QCD beautifully described the dance of short-lived quarks and gluons revealed by HERA’s extreme collisions,

the theory is useless for understanding the three long-lasting quarks seen in SLAC’s gentle bombardment.

QCD’s predictions are easy to understand only when the strong force is relatively weak.

And the strong force weakens only when quarks are extremely close together,
as they are in short-lived quark-antiquark pairs.

#Frank #Wilczek, #David #Gross and #David #Politzer identified this defining feature of QCD in 1973,
winning the Nobel Prize for it 31 years later.

But for gentler collisions like SLAC’s, where the proton acts like three quarks that mutually keep their distance,
these quarks pull on each other strongly enough that QCD calculations become impossible.

Thus, the task of further demystifying the three-quark view of the proton has fallen largely to experimentalists.
(Researchers who run “digital experiments,” in which QCD predictions are simulated on supercomputers,
have also made key contributions.)

And it’s in this low-resolution picture that physicists keep finding surprises.

Recently, a team led by #Juan #Rojo of the National Institute for Subatomic Physics in the Netherlands and VU University Amsterdam
analyzed more than 5,000 proton snapshots taken over the last 50 years,
using machine learning
to infer the motions of quarks and gluons inside the proton
in a way that sidesteps theoretical guesswork.

The new scrutiny picked up a background blur in the images that had escaped past researchers.

In relatively soft collisions just barely breaking the proton open,
most of the momentum was locked up in the usual three quarks:
two ups and a down.

But a small amount of momentum appeared to come from a “#charm” #quark and charm #antiquark
— colossal elementary particles that each outweigh the entire proton by more than
one-third❗️

Short-lived charms frequently show up in the “quark sea” view of the proton
(gluons can split into any of six different quark types if they have enough energy).

But the results from Rojo and colleagues suggest that the charms have a more permanent presence,
making them detectable in gentler collisions.

In these collisions, the proton appears as a quantum mixture,
or superposition,
of multiple states:

An electron usually encounters the three lightweight quarks.

But it will occasionally encounter a rarer “molecule” of five quarks,
such as an up, down and charm quark grouped on one side and an up quark and charm antiquark on the other.

Such subtle details about the proton’s makeup could prove consequential.

At the Large Hadron Collider, physicists search for new elementary particles by bashing high-speed protons together and seeing what pops out;

to understand the results, researchers need to know what’s in a proton to begin with.

The occasional apparition of giant charm quarks would throw off the odds of making more exotic particles.

And when protons called #cosmic #rays hurtle here from outer space and slam into protons in Earth’s atmosphere,
charm quarks popping up at the right moments would shower Earth with extra-energetic #neutrinos, researchers calculated in 2021.

These could confound observers searching for high-energy neutrinos coming from across the cosmos.

Rojo’s collaboration plans to continue exploring the proton by searching for an imbalance between charm quarks and antiquarks.

And heavier constituents,
such as the #top quark, could make even rarer and harder-to-detect appearances.

Next-generation experiments will seek still more unknown features.

Physicists at Brookhaven National Laboratory hope to fire up the
"Electron-Ion Collider"
in the 2030s
and pick up where HERA left off,
taking higher-resolution snapshots that will enable the first 3D reconstructions of the proton.

The #EIC will also use spinning electrons to create detailed maps of the spins of the internal quarks and gluons,
just as SLAC and HERA mapped out their momentums.

This should help researchers to finally pin down the origin of the proton’s spin,
and to address other fundamental questions about the baffling particle that makes up most of our everyday world.

https://www.quantamagazine.org/inside-the-proton-the-most-complicated-thing-imaginable-20221019/

The gluon cloud is exactly what QCD predicts.

“The HERA data are direct experimental proof that QCD describes nature,” Milner said.

But the young theory’s victory came with a bitter pill:

While QCD beautifully described the dance of short-lived quarks and gluons revealed by HERA’s extreme collisions,

the theory is useless for understanding the three long-lasting quarks seen in SLAC’s gentle bombardment.

QCD’s predictions are easy to understand only when the strong force is relatively weak.

And the strong force weakens only when quarks are extremely close together,
as they are in short-lived quark-antiquark pairs.

#Frank #Wilczek, #David #Gross and #David #Politzer identified this defining feature of QCD in 1973,
winning the Nobel Prize for it 31 years later.

But for gentler collisions like SLAC’s, where the proton acts like three quarks that mutually keep their distance,
these quarks pull on each other strongly enough that QCD calculations become impossible.

Thus, the task of further demystifying the three-quark view of the proton has fallen largely to experimentalists.
(Researchers who run “digital experiments,” in which QCD predictions are simulated on supercomputers,
have also made key contributions.)

And it’s in this low-resolution picture that physicists keep finding surprises.

Recently, a team led by #Juan #Rojo of the National Institute for Subatomic Physics in the Netherlands and VU University Amsterdam
analyzed more than 5,000 proton snapshots taken over the last 50 years,
using machine learning
to infer the motions of quarks and gluons inside the proton
in a way that sidesteps theoretical guesswork.

The new scrutiny picked up a background blur in the images that had escaped past researchers.

In relatively soft collisions just barely breaking the proton open,
most of the momentum was locked up in the usual three quarks:
two ups and a down.

But a small amount of momentum appeared to come from a “#charm” #quark and charm #antiquark
— colossal elementary particles that each outweigh the entire proton by more than
one-third❗️

Short-lived charms frequently show up in the “quark sea” view of the proton
(gluons can split into any of six different quark types if they have enough energy).

But the results from Rojo and colleagues suggest that the charms have a more permanent presence,
making them detectable in gentler collisions.

In these collisions, the proton appears as a quantum mixture,
or superposition,
of multiple states:

An electron usually encounters the three lightweight quarks.

But it will occasionally encounter a rarer “molecule” of five quarks,
such as an up, down and charm quark grouped on one side and an up quark and charm antiquark on the other.

Such subtle details about the proton’s makeup could prove consequential.

At the Large Hadron Collider, physicists search for new elementary particles by bashing high-speed protons together and seeing what pops out;

to understand the results, researchers need to know what’s in a proton to begin with.

The occasional apparition of giant charm quarks would throw off the odds of making more exotic particles.

And when protons called #cosmic #rays hurtle here from outer space and slam into protons in Earth’s atmosphere,
charm quarks popping up at the right moments would shower Earth with extra-energetic #neutrinos, researchers calculated in 2021.

These could confound observers searching for high-energy neutrinos coming from across the cosmos.

Rojo’s collaboration plans to continue exploring the proton by searching for an imbalance between charm quarks and antiquarks.

And heavier constituents,
such as the #top quark, could make even rarer and harder-to-detect appearances.

Next-generation experiments will seek still more unknown features.

Physicists at Brookhaven National Laboratory hope to fire up the
"Electron-Ion Collider"
in the 2030s
and pick up where HERA left off,
taking higher-resolution snapshots that will enable the first 3D reconstructions of the proton.

The #EIC will also use spinning electrons to create detailed maps of the spins of the internal quarks and gluons,
just as SLAC and HERA mapped out their momentums.

This should help researchers to finally pin down the origin of the proton’s spin,
and to address other fundamental questions about the baffling particle that makes up most of our everyday world.

https://www.quantamagazine.org/inside-the-proton-the-most-complicated-thing-imaginable-20221019/

The gluon cloud is exactly what QCD predicts.

“The HERA data are direct experimental proof that QCD describes nature,” Milner said.

But the young theory’s victory came with a bitter pill:

While QCD beautifully described the dance of short-lived quarks and gluons revealed by HERA’s extreme collisions,

the theory is useless for understanding the three long-lasting quarks seen in SLAC’s gentle bombardment.

QCD’s predictions are easy to understand only when the strong force is relatively weak.

And the strong force weakens only when quarks are extremely close together,
as they are in short-lived quark-antiquark pairs.

#Frank #Wilczek, #David #Gross and #David #Politzer identified this defining feature of QCD in 1973,
winning the Nobel Prize for it 31 years later.

But for gentler collisions like SLAC’s, where the proton acts like three quarks that mutually keep their distance,
these quarks pull on each other strongly enough that QCD calculations become impossible.

Thus, the task of further demystifying the three-quark view of the proton has fallen largely to experimentalists.
(Researchers who run “digital experiments,” in which QCD predictions are simulated on supercomputers,
have also made key contributions.)

And it’s in this low-resolution picture that physicists keep finding surprises.

Recently, a team led by #Juan #Rojo of the National Institute for Subatomic Physics in the Netherlands and VU University Amsterdam
analyzed more than 5,000 proton snapshots taken over the last 50 years,
using machine learning
to infer the motions of quarks and gluons inside the proton
in a way that sidesteps theoretical guesswork.

The new scrutiny picked up a background blur in the images that had escaped past researchers.

In relatively soft collisions just barely breaking the proton open,
most of the momentum was locked up in the usual three quarks:
two ups and a down.

But a small amount of momentum appeared to come from a “#charm” #quark and charm #antiquark
— colossal elementary particles that each outweigh the entire proton by more than
one-third❗️

Short-lived charms frequently show up in the “quark sea” view of the proton
(gluons can split into any of six different quark types if they have enough energy).

But the results from Rojo and colleagues suggest that the charms have a more permanent presence,
making them detectable in gentler collisions.

In these collisions, the proton appears as a quantum mixture,
or superposition,
of multiple states:

An electron usually encounters the three lightweight quarks.

But it will occasionally encounter a rarer “molecule” of five quarks,
such as an up, down and charm quark grouped on one side and an up quark and charm antiquark on the other.

Such subtle details about the proton’s makeup could prove consequential.

At the Large Hadron Collider, physicists search for new elementary particles by bashing high-speed protons together and seeing what pops out;

to understand the results, researchers need to know what’s in a proton to begin with.

The occasional apparition of giant charm quarks would throw off the odds of making more exotic particles.

And when protons called #cosmic #rays hurtle here from outer space and slam into protons in Earth’s atmosphere,
charm quarks popping up at the right moments would shower Earth with extra-energetic #neutrinos, researchers calculated in 2021.

These could confound observers searching for high-energy neutrinos coming from across the cosmos.

Rojo’s collaboration plans to continue exploring the proton by searching for an imbalance between charm quarks and antiquarks.

And heavier constituents,
such as the #top quark, could make even rarer and harder-to-detect appearances.

Next-generation experiments will seek still more unknown features.

Physicists at Brookhaven National Laboratory hope to fire up the
"Electron-Ion Collider"
in the 2030s
and pick up where HERA left off,
taking higher-resolution snapshots that will enable the first 3D reconstructions of the proton.

The #EIC will also use spinning electrons to create detailed maps of the spins of the internal quarks and gluons,
just as SLAC and HERA mapped out their momentums.

This should help researchers to finally pin down the origin of the proton’s spin,
and to address other fundamental questions about the baffling particle that makes up most of our everyday world.

https://www.quantamagazine.org/inside-the-proton-the-most-complicated-thing-imaginable-20221019/

The gluon cloud is exactly what QCD predicts.

“The HERA data are direct experimental proof that QCD describes nature,” Milner said.

But the young theory’s victory came with a bitter pill:

While QCD beautifully described the dance of short-lived quarks and gluons revealed by HERA’s extreme collisions,

the theory is useless for understanding the three long-lasting quarks seen in SLAC’s gentle bombardment.

QCD’s predictions are easy to understand only when the strong force is relatively weak.

And the strong force weakens only when quarks are extremely close together,
as they are in short-lived quark-antiquark pairs.

#Frank #Wilczek, #David #Gross and #David #Politzer identified this defining feature of QCD in 1973,
winning the Nobel Prize for it 31 years later.

But for gentler collisions like SLAC’s, where the proton acts like three quarks that mutually keep their distance,
these quarks pull on each other strongly enough that QCD calculations become impossible.

Thus, the task of further demystifying the three-quark view of the proton has fallen largely to experimentalists.
(Researchers who run “digital experiments,” in which QCD predictions are simulated on supercomputers,
have also made key contributions.)

And it’s in this low-resolution picture that physicists keep finding surprises.

Recently, a team led by #Juan #Rojo of the National Institute for Subatomic Physics in the Netherlands and VU University Amsterdam
analyzed more than 5,000 proton snapshots taken over the last 50 years,
using machine learning
to infer the motions of quarks and gluons inside the proton
in a way that sidesteps theoretical guesswork.

The new scrutiny picked up a background blur in the images that had escaped past researchers.

In relatively soft collisions just barely breaking the proton open,
most of the momentum was locked up in the usual three quarks:
two ups and a down.

But a small amount of momentum appeared to come from a “#charm” #quark and charm #antiquark
— colossal elementary particles that each outweigh the entire proton by more than
one-third❗️

Short-lived charms frequently show up in the “quark sea” view of the proton
(gluons can split into any of six different quark types if they have enough energy).

But the results from Rojo and colleagues suggest that the charms have a more permanent presence,
making them detectable in gentler collisions.

In these collisions, the proton appears as a quantum mixture,
or superposition,
of multiple states:

An electron usually encounters the three lightweight quarks.

But it will occasionally encounter a rarer “molecule” of five quarks,
such as an up, down and charm quark grouped on one side and an up quark and charm antiquark on the other.

Such subtle details about the proton’s makeup could prove consequential.

At the Large Hadron Collider, physicists search for new elementary particles by bashing high-speed protons together and seeing what pops out;

to understand the results, researchers need to know what’s in a proton to begin with.

The occasional apparition of giant charm quarks would throw off the odds of making more exotic particles.

And when protons called #cosmic #rays hurtle here from outer space and slam into protons in Earth’s atmosphere,
charm quarks popping up at the right moments would shower Earth with extra-energetic #neutrinos, researchers calculated in 2021.

These could confound observers searching for high-energy neutrinos coming from across the cosmos.

Rojo’s collaboration plans to continue exploring the proton by searching for an imbalance between charm quarks and antiquarks.

And heavier constituents,
such as the #top quark, could make even rarer and harder-to-detect appearances.

Next-generation experiments will seek still more unknown features.

Physicists at Brookhaven National Laboratory hope to fire up the
"Electron-Ion Collider"
in the 2030s
and pick up where HERA left off,
taking higher-resolution snapshots that will enable the first 3D reconstructions of the proton.

The #EIC will also use spinning electrons to create detailed maps of the spins of the internal quarks and gluons,
just as SLAC and HERA mapped out their momentums.

This should help researchers to finally pin down the origin of the proton’s spin,
and to address other fundamental questions about the baffling particle that makes up most of our everyday world.

https://www.quantamagazine.org/inside-the-proton-the-most-complicated-thing-imaginable-20221019/

The gluon cloud is exactly what QCD predicts.

“The HERA data are direct experimental proof that QCD describes nature,” Milner said.

But the young theory’s victory came with a bitter pill:

While QCD beautifully described the dance of short-lived quarks and gluons revealed by HERA’s extreme collisions,

the theory is useless for understanding the three long-lasting quarks seen in SLAC’s gentle bombardment.

QCD’s predictions are easy to understand only when the strong force is relatively weak.

And the strong force weakens only when quarks are extremely close together,
as they are in short-lived quark-antiquark pairs.

#Frank #Wilczek, #David #Gross and #David #Politzer identified this defining feature of QCD in 1973,
winning the Nobel Prize for it 31 years later.

But for gentler collisions like SLAC’s, where the proton acts like three quarks that mutually keep their distance,
these quarks pull on each other strongly enough that QCD calculations become impossible.

Thus, the task of further demystifying the three-quark view of the proton has fallen largely to experimentalists.
(Researchers who run “digital experiments,” in which QCD predictions are simulated on supercomputers,
have also made key contributions.)

And it’s in this low-resolution picture that physicists keep finding surprises.

Recently, a team led by #Juan #Rojo of the National Institute for Subatomic Physics in the Netherlands and VU University Amsterdam
analyzed more than 5,000 proton snapshots taken over the last 50 years,
using machine learning
to infer the motions of quarks and gluons inside the proton
in a way that sidesteps theoretical guesswork.

The new scrutiny picked up a background blur in the images that had escaped past researchers.

In relatively soft collisions just barely breaking the proton open,
most of the momentum was locked up in the usual three quarks:
two ups and a down.

But a small amount of momentum appeared to come from a “#charm” #quark and charm #antiquark
— colossal elementary particles that each outweigh the entire proton by more than
one-third❗️

Short-lived charms frequently show up in the “quark sea” view of the proton
(gluons can split into any of six different quark types if they have enough energy).

But the results from Rojo and colleagues suggest that the charms have a more permanent presence,
making them detectable in gentler collisions.

In these collisions, the proton appears as a quantum mixture,
or superposition,
of multiple states:

An electron usually encounters the three lightweight quarks.

But it will occasionally encounter a rarer “molecule” of five quarks,
such as an up, down and charm quark grouped on one side and an up quark and charm antiquark on the other.

Such subtle details about the proton’s makeup could prove consequential.

At the Large Hadron Collider, physicists search for new elementary particles by bashing high-speed protons together and seeing what pops out;

to understand the results, researchers need to know what’s in a proton to begin with.

The occasional apparition of giant charm quarks would throw off the odds of making more exotic particles.

And when protons called #cosmic #rays hurtle here from outer space and slam into protons in Earth’s atmosphere,
charm quarks popping up at the right moments would shower Earth with extra-energetic #neutrinos, researchers calculated in 2021.

These could confound observers searching for high-energy neutrinos coming from across the cosmos.

Rojo’s collaboration plans to continue exploring the proton by searching for an imbalance between charm quarks and antiquarks.

And heavier constituents,
such as the #top quark, could make even rarer and harder-to-detect appearances.

Next-generation experiments will seek still more unknown features.

Physicists at Brookhaven National Laboratory hope to fire up the
"Electron-Ion Collider"
in the 2030s
and pick up where HERA left off,
taking higher-resolution snapshots that will enable the first 3D reconstructions of the proton.

The #EIC will also use spinning electrons to create detailed maps of the spins of the internal quarks and gluons,
just as SLAC and HERA mapped out their momentums.

This should help researchers to finally pin down the origin of the proton’s spin,
and to address other fundamental questions about the baffling particle that makes up most of our everyday world.

https://www.quantamagazine.org/inside-the-proton-the-most-complicated-thing-imaginable-20221019/

Our collaborative project MiWear (Mid-infrared Wearable for Non-invasive biomarker monitoring) is running a short survey on wellness and wearable devices. We would love to have your input:

https://docs.google.com/forms/d/e/1FAIpQLSfad1VTxvX7ZWdtUmPgwAm9CE9v7IiFwjcJp93ORJh2jWbSGA/viewform

#Innovation #EU #EIC #PathfinderChallenges #MiWear #MEMS #Wellness #WearableDevices #Survey

https://www.europesays.com/uk/548039/ Bridging EU-US venture gaps: Interview with Jillian Manus, EIC Advisor and Structure Capital Partner #climatetech #EIC #EU #Europe #EuropeaInnnovationCouncil(EIC) #European #InnovationRadarBridge #JillianManus #PensionFunds #StructureCapital #Ventures.eu #Ventures.euForum

@forthy42

#Shareholder liability #Fedilaw #Legal

(1/n)

I can follow your train of thought, Bernd.

The way you portray the opium trade and the #BritishEastIndiaCompany's (EIC) example, I do see the moral hazard. We can both agree that it was morally wrong.

I am no specialist in medieval English law, but the #EIC received a royal charter and thus was a legal company in #Britain. Owning shares in that joint-stock company was legal, so there cannot be a liability...

📢 #EIC Awardees & Seal of Excellence holders—learn how to access up to €60K in fundraising support through @EUeic
📅22 Oct 2025⏰15:00 CEST
🔗 https://rxn.mbp-rnc.com/25afw?utm_source=Mastodon
🏷️ Register for the session or tag a colleague
#InfoSession #FundingOpportunity #Webinar

Through the #European Innovation Council (#EIC), a body of the European Commission created to promote scientific and technological excellence, "#Israel" receives millions of euros that directly fuel its industry of #war and #genocide.

#Drone technologies, #surveillance systems, and artificial intelligence programs applied to population control continue to receive European financial support. These are not “neutral innovations”: they are integral components of the genocidal machinery devastating #Gaza.

When Russia invaded Ukraine, the #EU suspended all scientific and technological cooperation, imposed sanctions, and politically isolated Moscow.

When "Israel' destroys Gaza and accumulates accusations of war crimes, crimes against humanity, and genocide, with an international arrest warrant against Prime Minister Netanyahu issued by the International Criminal Court, Brussels maintains and strengthens its cooperation, transferring public funds that end up in Israeli military-industrial companies.

An intolerable double standard: in #Ukraine, international law is invoked to sanction #Russia; in #Palestine, it is trampled to protect "Israel".

...Every euro flowing from Brussels to Tel Aviv becomes active complicity in genocide.
https://english.almayadeen.net/articles/opinion/the-european-union-finances--israel-s--war-machine
#EUcomplicity #DoubleStandards #DestroyEU

DYAMOND Global Carbon Dioxide for Science On A Sphere

#CarbonDioxide #Corona #CoronalMassEjections #EUVImaging #Eic(earthinformationcenter)display #ExtremeUltravioletImaging #Heliophysics #Multiplesolarflares

⏩ 3 new pictures and 3 new videos from NASA (SVS) https://commons.wikimedia.org/wiki/Special:ListFiles?limit=20&user=OptimusPrimeBot&ilshowall=1&offset=20250713130104

DYAMOND Global Carbon Dioxide for Science On A Sphere

#CarbonDioxide #Corona #CoronalMassEjections #EUVImaging #Eic(earthinformationcenter)display #ExtremeUltravioletImaging #Heliophysics #Multiplesolarflares

⏩ 3 new pictures and 3 new videos from NASA (SVS) https://commons.wikimedia.org/wiki/Special:ListFiles?limit=20&user=OptimusPrimeBot&ilshowall=1&offset=20250713130104

DYAMOND Global Carbon Dioxide for Science On A Sphere

#CarbonDioxide #Corona #CoronalMassEjections #EUVImaging #Eic(earthinformationcenter)display #ExtremeUltravioletImaging #Heliophysics #Multiplesolarflares

⏩ 3 new pictures and 3 new videos from NASA (SVS) https://commons.wikimedia.org/wiki/Special:ListFiles?limit=20&user=OptimusPrimeBot&ilshowall=1&offset=20250713130104

DYAMOND Global Carbon Dioxide for Science On A Sphere

#CarbonDioxide #Corona #CoronalMassEjections #EUVImaging #Eic(earthinformationcenter)display #ExtremeUltravioletImaging #Heliophysics #Multiplesolarflares

⏩ 3 new pictures and 3 new videos from NASA (SVS) https://commons.wikimedia.org/wiki/Special:ListFiles?limit=20&user=OptimusPrimeBot&ilshowall=1&offset=20250713130104

Roman Space Telescope Solar Panels are Fully Installed

#CarbonDioxide #Cleanroom #Corona #EUVImaging #Eic(earthinformationcenter)display #ExtremeUltravioletImaging #Heliophysics #NancyGraceRomanSpaceTelescope

⏩ 3 new pictures and 4 new videos from NASA (SVS) https://commons.wikimedia.org/wiki/Special:ListFiles?limit=21&user=OptimusPrimeBot&ilshowall=1&offset=20250711130039

Roman Space Telescope Solar Panels are Fully Installed

#CarbonDioxide #Cleanroom #Corona #EUVImaging #Eic(earthinformationcenter)display #ExtremeUltravioletImaging #Heliophysics #NancyGraceRomanSpaceTelescope

⏩ 3 new pictures and 4 new videos from NASA (SVS) https://commons.wikimedia.org/wiki/Special:ListFiles?limit=21&user=OptimusPrimeBot&ilshowall=1&offset=20250711130039

Roman Space Telescope Solar Panels are Fully Installed

#CarbonDioxide #Cleanroom #Corona #EUVImaging #Eic(earthinformationcenter)display #ExtremeUltravioletImaging #Heliophysics #NancyGraceRomanSpaceTelescope

⏩ 3 new pictures and 4 new videos from NASA (SVS) https://commons.wikimedia.org/wiki/Special:ListFiles?limit=21&user=OptimusPrimeBot&ilshowall=1&offset=20250711130039

Roman Space Telescope Solar Panels are Fully Installed

#CarbonDioxide #Cleanroom #Corona #EUVImaging #Eic(earthinformationcenter)display #ExtremeUltravioletImaging #Heliophysics #NancyGraceRomanSpaceTelescope

⏩ 3 new pictures and 4 new videos from NASA (SVS) https://commons.wikimedia.org/wiki/Special:ListFiles?limit=21&user=OptimusPrimeBot&ilshowall=1&offset=20250711130039

DYAMOND Global Carbon Dioxide for Science On A Sphere

#Atmosphere #CarbonDioxide #EarthScience #Eic(earthinformationcenter)display

⏩ 2 new pictures and 2 new videos from NASA (SVS) https://commons.wikimedia.org/wiki/Special:ListFiles?limit=14&user=OptimusPrimeBot&ilshowall=1&offset=20250709125702

NASA's Habitable Worlds Observatory Will Search For Life

#Astrophysics #CarbonDioxide #Coronagraph #Eic(earthinformationcenter)display #Exoplanet #HabitableWorldsObservatory #Spectroscopy

⏩ 2 new pictures and 2 new videos from NASA (SVS) https://commons.wikimedia.org/wiki/Special:ListFiles?limit=10&user=OptimusPrimeBot&ilshowall=1&offset=20250708125534

DYAMOND Global Carbon Dioxide for Science On A Sphere

#CarbonDioxide #Eic(earthinformationcenter)display

⏩ 1 new picture and 1 new video from NASA (SVS) https://commons.wikimedia.org/wiki/Special:ListFiles?limit=8&user=OptimusPrimeBot&ilshowall=1&offset=20250706130014

DYAMOND Global Carbon Dioxide for Science On A Sphere

#CarbonDioxide #Eic(earthinformationcenter)display

⏩ 1 new picture and 1 new video from NASA (SVS) https://commons.wikimedia.org/wiki/Special:ListFiles?limit=8&user=OptimusPrimeBot&ilshowall=1&offset=20250706130014

143mio EUR for 2087 project proposals with approx. 3mio each. That means a funding rate of 2.2% or a reject rate of 97.8%.

What a waste of resources, so many excellent proposals will be rejected. Science funding has to be organized differently. This is so frustrating, I already regret to have spent so much time on the proposal.
And the @EUeic even boasts the many submissions. But that is only the accumulated resubmissions of excellent proposals that were rejected in previous years.

#ScienceMastodon #EIC #funding

EIC Pathfinder Open 2025 call draws record interest from the research community - European Commission
https://eic.ec.europa.eu/news/eic-pathfinder-open-2025-call-draws-record-interest-research-community-2025-05-23_en

Today, Ursula Von Der Leyen made the case for why #Europe 🇪🇺 is the place to be for researchers, speaking at the launch of the new "Choose Europe for Science" initiative, something dear to #EmmanuelMacron.

Let's see what it is about, and enjoy this opportunity to deep dive within the other EU programs for Science that she highlighted, such as #HorizonEurope, the #ERC, the #EIC, the #MSCA or #EuroHPC.

https://www.ecuradio.eu/2025/05/horizon-europe-eurohpc-choose-europe-eu-pursuit-of-scientific-sovereignty/

#ChooseEurope #EUScience #Science #Research #Innovation

On my way to #EIC in Berlin where I and my colleague @charlieegan3 will be talking #OPA, access control and identity. The usual! Let me know if you’re there too. We have some awesome stickers, and one specifically for Berlin!

Here's a Thursday afternoon work thought. How about CORDIS search could also see into Horizon Europe member countries' national grant funding databases? #CORDIS #HorizonEU #eic #innovateuk

Next week will be a hectic one. From Stockholm to the #EIC conference in Berlin Monday-Friday.

Wednesday night, Ghost https://www.uber-arena.de/en/events/detail/ghost/

Thursday night a “quick” detour to London to see my beloved #DIF play against Chelsea at Stamford Bridge.

Back to Berlin Friday morning, home to Stockholm Friday night. This is why I’m bald.

EU has identified our key technology MEMS FPI filter as a significant innovation on the Innovation Radar. This recognition underscores the advancements achieved through EU-funded projects.

#Innovation #EU #EIC #PathfinderChallenges #MiWear #MEMS #FPI

https://innovation-radar.ec.europa.eu/innovation/60816

Back to high school, today, for a seminar to pupils! UNIMORE CROSSBRAIN #EIC

#SanjivMehta #entrepreneur #Mumbai
How an #IIMA man relaunched the #EastIndiaCompany #EIC
Acquired in 2005
Now a #luxurybrand
#teas #goldcoins #books
Collaborations with prestigious entities like #RoyalMint and #VictoriaAlbertMuseum.
https://economictimes.indiatimes.com/news/india/how-an-iim-a-man-relaunched-the-east-india-company/articleshow/112523689.cms?utm_source=contentofinterest&utm_medium=text&utm_campaign=cppst

As I get ready to leave Berlin, I reflect on the wonderful insights I gathered from conversations in the hallways and at dinner, and from on stage talks and panels at #EIC2024. What jumps to the top of my mind is this incredibly deep and meaningful statement Francesca Morpurgo said at the start of our panel on Wednesday reminding us of our responsibility:
"When you are assigning identity, you are exercising power, and you are defining their possibilities."

I leave #EIC hopeful that this incredible, passionate, and hardworking community I call family can tackle the hard task ahead of us.

Thank you to the entire KuppingerCole team for putting on another great conference. Happy for all the new connections I made, and looking forward to collaborating with you in making #DigitalIdentity a power for good. Thanks to the great partners on the panel, and as always, much love to my #Identirati family that was here for making this a special week.

I leave all of you with a line from my talk this week: Digital Identity can be a wonderful tool for inclusion, but it can also be a ruthless weapon for exclusion.

#DigitalIdentity #EthicalIdentity #ForAllByAll

Tech support question: When you try to sign the European Citizens Initiative “Tax the Rich” (👉 https://www.tax-the-rich.eu/home#support) using eID from another country than Germany, does your authentication proxy also time out? #EIC #EBI #toFedEU #JEF #TaxTheRich

William Dalrymple: The Anarchy: The Relentless Rise of the East India Company

Książka nie zawodzi i jest faktycznie warta dobrych recenzji. Zwłaszcza, że autor sięgnął po wiele indyjskich źródeł, które bardziej niuansują historię kompanii na miejscu, a osią narracji jest tytułowa anarchia, w której pogrążyło się imperium Mogołów.

https://wp.me/p3fv0T-fKL #Indie #książka #Kompania #Anarchia #kolonializm #Azja #EIC

Good times with #Styra friends at #EIC Berlin, talking policy, authorization and #OpenPolicyAgent. If you're around, don't miss when @charlieegan3 talks #OPA and #SPIFFE today!

#EIC2023