#quark — Public Fediverse posts

@jf_718 And before Mouse Desk, there was Quark Catalyst 3.0, which came bundled with the UniDisk 3.5 floppy drive from Apple -- and was digitally locked to the UniDisk as copy protection.

#AppleII #GUI #Quark

@jf_718 And before Mouse Desk, there was Quark Catalyst 3.0, which came bundled with the UniDisk 3.5 floppy drive from Apple -- and was digitally locked to the UniDisk as copy protection.

#AppleII #GUI #Quark

@jf_718 And before Mouse Desk, there was Quark Catalyst 3.0, which came bundled with the UniDisk 3.5 floppy drive from Apple -- and was digitally locked to the UniDisk as copy protection.

#AppleII #GUI #Quark

Käsekuchen-Muffins + Mandarinen ( = Mini-Quarktörtchen)
#Muffins #Käsekuchen

Mehl Butter Zucker Backpulver Ei Salz zu einem Teig verarbeiten. Muffin-Förmchen damit auslegen.
#Quark Ei geschmolzene Butter Zucker Stärkemehl #Vanille + #Zitronenabrieb verrühren, ein die Förmchen füllen, je 2 -3 Stückchen Dosen-#Mandarinen hineindrücken + backen.

The LHCb experiment at #CERN has discovered a new particle made from two charm quarks and a down #quark.

This double-charmed particle is like a #proton but with quadruple the mass.

https://home.cern/news/news/physics/lhcb-collaboration-discovers-new-proton-particle

#physics #particlephysics #science #LHC

Das #Rezept des Tages:

🌿 Bärlauch-Kräuterquark 🧄

#Bärlauch-Kräuterquark geht gut als #Brotaufstrich oder passt zu #Pellkartoffeln. Mit #Quark und fein gehackten Bärlauchblättern erhält man eine Alternative zu Kaufprodukten, für die man eine Lupe braucht, um darin #Bärlauch zu entdecken. Die Konsistenz kann man mit #Milch oder fettarmem #Joghurt variiert werden. 🍞 Problemchen ist halt, im Frühjahr an Bärlauch zu kommen. 🥔

https://www.oekologisch-unterwegs.de/rezepte-zum-kochen/721-baerlauch-kraeuterquark.html

#OvoLacto #Rezept #GesundEssen #Kochen

Das #Rezept des Tages:

🥒 Tsatsiki (Zaziki) 🧄

Dieses Rezept arbeitet nur mit cremigem #Joghurt und ohne #Quark sowie frischer #Gurke und vier Zehen #Knoblauch. Etwas #Dill und ein Schuss #Zitronensaft runden den Geschmack ab. Über Nacht im Kühlschrank gezogen, schmeckt er noch besser. 🌿🍋

https://www.oekologisch-unterwegs.de/rezepte-zum-kochen/677-tsatsiki-variante-3.html

#OvoLacto #Rezept #Dip #Sommerrezepte #Grillen

Das #Rezept des Tages:

🥒 Tsatsiki (Zaziki) 🧄

Dieses Rezept arbeitet nur mit cremigem #Joghurt und ohne #Quark sowie frischer #Gurke und vier Zehen #Knoblauch. Etwas #Dill und ein Schuss #Zitronensaft runden den Geschmack ab. Über Nacht im Kühlschrank gezogen, schmeckt er noch besser. 🌿🍋

https://www.oekologisch-unterwegs.de/rezepte-zum-kochen/677-tsatsiki-variante-3.html

#OvoLacto #Rezept #Dip #Sommerrezepte #Grillen

Das #Rezept des Tages:

🥒 Tsatsiki (Zaziki) 🧄

Dieses Rezept arbeitet nur mit cremigem #Joghurt und ohne #Quark sowie frischer #Gurke und vier Zehen #Knoblauch. Etwas #Dill und ein Schuss #Zitronensaft runden den Geschmack ab. Über Nacht im Kühlschrank gezogen, schmeckt er noch besser. 🌿🍋

https://www.oekologisch-unterwegs.de/rezepte-zum-kochen/677-tsatsiki-variante-3.html

#OvoLacto #Rezept #Dip #Sommerrezepte #Grillen

Das #Rezept des Tages:

🥒 Tsatsiki (Zaziki) 🧄

Dieses Rezept arbeitet nur mit cremigem #Joghurt und ohne #Quark sowie frischer #Gurke und vier Zehen #Knoblauch. Etwas #Dill und ein Schuss #Zitronensaft runden den Geschmack ab. Über Nacht im Kühlschrank gezogen, schmeckt er noch besser. 🌿🍋

https://www.oekologisch-unterwegs.de/rezepte-zum-kochen/677-tsatsiki-variante-3.html

#OvoLacto #Rezept #Dip #Sommerrezepte #Grillen

Orangen-Quarkcreme (6 Portionen)

https://bunte-kuechenabenteuer.de/orangen-quarkcreme-6-portionen/

Künstlerpech. Ich habe mein mit Frischkäse bestrichenes Toastbrot gemalt, es sieht aber aus wie Schimmel. Experiment gescheitert.
#schimmel #toast #quark #frischkäse

Quarkauflauf mit Pfirsichen und Cranberry (6 Portionen)

https://bunte-kuechenabenteuer.de/quarkauflauf-mit-pfirsichen-und-cranberry-6-portionen/

Fettige Milch und schön flauschig: Landwirtin setzt auf Jersey-Kühe
https://www.ndr.de/nachrichten/niedersachsen/oldenburg_ostfriesland/viel-fett-und-schoen-flauschig-landwirtin-setzt-auf-jersey-kuehe,jerseykuehe-100.html

'Das Tolle an meinen Kühen ist, dass der gesamte Tagesablauf mit ihnen viel mehr Spaß macht. [...]Sie sind neugierig, zutraulich und wenn man vergisst, irgendwo ein Tor zuzumachen, dann entdecken sie ihre Freiheit.'

Ach so tolle Kühe & dann isses auch total ok, ihnen ihre Babys weg zu nehmen, weil mit der fetten Muttermilch soll ja Kasse gemacht werden 🥰

#DieMilchMachts #Kühe #Käse #Quark

‘Star Trek: Deep Space 9’s Game, Played Quark’s Bar & that He Dominates At.

https://piefed.social/c/startrek/p/1672814/star-trek-deep-space-9s-game-played-quarks-bar-that-he-dominates-at

Das #Rezept des Tages:

Eines von drei Rezepten für Tsatsiki. 🥒🧄 Dieses hier arbeitet nur mit cremigem #Joghurt und ohne #Quark sowie frischer #Gurke und vier Zehen #Knoblauch. Etwas #Dill und ein Schuss #Zitronensaft runden den Geschmack ab. Über Nacht im Kühlschrank gezogen, schmeckt er noch besser. 🌿🍋

#Tsatsiki #Rezeptideen #Dip #Sommerrezepte #Grillen #Kulinarik

https://www.oekologisch-unterwegs.de/rezepte-zum-kochen/677-tsatsiki-variante-3.html

Das #Rezept des Tages:

Eines von drei Rezepten für Tsatsiki. 🥒🧄 Dieses hier arbeitet nur mit cremigem #Joghurt und ohne #Quark sowie frischer #Gurke und vier Zehen #Knoblauch. Etwas #Dill und ein Schuss #Zitronensaft runden den Geschmack ab. Über Nacht im Kühlschrank gezogen, schmeckt er noch besser. 🌿🍋

#Tsatsiki #Rezeptideen #Dip #Sommerrezepte #Grillen #Kulinarik

https://www.oekologisch-unterwegs.de/rezepte-zum-kochen/677-tsatsiki-variante-3.html

Das #Rezept des Tages:

Eines von drei Rezepten für Tsatsiki. 🥒🧄 Dieses hier arbeitet nur mit cremigem #Joghurt und ohne #Quark sowie frischer #Gurke und vier Zehen #Knoblauch. Etwas #Dill und ein Schuss #Zitronensaft runden den Geschmack ab. Über Nacht im Kühlschrank gezogen, schmeckt er noch besser. 🌿🍋

#Tsatsiki #Rezeptideen #Dip #Sommerrezepte #Grillen #Kulinarik

https://www.oekologisch-unterwegs.de/rezepte-zum-kochen/677-tsatsiki-variante-3.html

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/

Не runc’ом единым: интересные среды запуска контейнеров

Существует множество сред для запуска контейнеров; среди распространенных можно выделить runc и kata. Мы в

https://habr.com/ru/companies/beeline_cloud/articles/979010/

#beeline_cloud #контейнеризация #youki #urunc #ocre #quark #kuasar #incus

#TUDarmstadt:
"
Von Quarkmaterie zu Neutronensternen
"
"Die genaue Beschreibung von Materie unter extremen Bedingungen, wie sie im Inneren von Neutronensternen vorkommt, ist bis heute ein ungelöstes Problem. .."

".. legt nun nahe, dass farbsupraleitende Materie einen wichtigen Baustein für die Erklärung massereicher Neutronensterne darstellt .."

https://www.tu-darmstadt.de/universitaet/aktuelles_meldungen/einzelansicht_540096.de.jsp

17.12.2025

#Astrophysik #Kernphysik #Masse #Materie #Neutronenstern #Quarkmaterie #Quarkpaar #Quark

Veganes Essen ist soooooo eklig. Deshalb essen wir diese Mohn-Quark-Himbeertorte einfach allein. #vegan #veganerkuchen #Mohn #Quark #Himbeeren

I still think about Kre-O Quark even now

#KreO #Quark #StarTrek #DeepSpaceNine #DS9

Aprikosen-Amaretto Cheesecake
#Ottolenghi #Kuchen

#Kekse im Mixer schreddern, mit gerösteten #Mandel.n flüssiger #Butter mischen, in Tortenform drücken.
#Aprikosen mit Zucker bestreuen + Amaretto beträufeln, im Ofen rösten.
#Quark #Frischkäse Zucker Eier #Vanille #Orangenabrieb #Amaretto verrühren.
Die Hälfte der Aprikosen auf dem Boden verteilen, Quarkmasse einfüllen, backen. abkühlen.
Mit #Puderzucker bestreuen + gerösteten Aprikosen + gerösteten Mandel.n dekorieren.

Aprikosen-Amaretto Cheesecake
#Ottolenghi #Kuchen

#Kekse im Mixer schreddern, mit gerösteten #Mandel.n flüssiger #Butter mischen, in Tortenform drücken.
#Aprikosen mit Zucker bestreuen + Amaretto beträufeln, im Ofen rösten.
#Quark #Frischkäse Zucker Eier #Vanille #Orangenabrieb #Amaretto verrühren.
Die Hälfte der Aprikosen auf dem Boden verteilen, Quarkmasse einfüllen, backen. abkühlen.
Mit #Puderzucker bestreuen + gerösteten Aprikosen + gerösteten Mandel.n dekorieren.

Aprikosen-Amaretto Cheesecake
#Ottolenghi #Kuchen

#Kekse im Mixer schreddern, mit gerösteten #Mandel.n flüssiger #Butter mischen, in Tortenform drücken.
#Aprikosen mit Zucker bestreuen + Amaretto beträufeln, im Ofen rösten.
#Quark #Frischkäse Zucker Eier #Vanille #Orangenabrieb #Amaretto verrühren.
Die Hälfte der Aprikosen auf dem Boden verteilen, Quarkmasse einfüllen, backen. abkühlen.
Mit #Puderzucker bestreuen + gerösteten Aprikosen + gerösteten Mandel.n dekorieren.

Aprikosen-Amaretto Cheesecake
#Ottolenghi #Kuchen

#Kekse im Mixer schreddern, mit gerösteten #Mandel.n flüssiger #Butter mischen, in Tortenform drücken.
#Aprikosen mit Zucker bestreuen + Amaretto beträufeln, im Ofen rösten.
#Quark #Frischkäse Zucker Eier #Vanille #Orangenabrieb #Amaretto verrühren.
Die Hälfte der Aprikosen auf dem Boden verteilen, Quarkmasse einfüllen, backen. abkühlen.
Mit #Puderzucker bestreuen + gerösteten Aprikosen + gerösteten Mandel.n dekorieren.

Aprikosen-Amaretto Cheesecake
#Ottolenghi #Kuchen

#Kekse im Mixer schreddern, mit gerösteten #Mandel.n flüssiger #Butter mischen, in Tortenform drücken.
#Aprikosen mit Zucker bestreuen + Amaretto beträufeln, im Ofen rösten.
#Quark #Frischkäse Zucker Eier #Vanille #Orangenabrieb #Amaretto verrühren.
Die Hälfte der Aprikosen auf dem Boden verteilen, Quarkmasse einfüllen, backen. abkühlen.
Mit #Puderzucker bestreuen + gerösteten Aprikosen + gerösteten Mandel.n dekorieren.

Janky attempt to tame the mighty ClockFace (by putting it in a window of my choosing)

https://github.com/supercollider-quarks/ClockFace/pull/3

#SuperCollider #ClockFace #Quark

Gemüseschnecken
#vegetarisch

Mehl Salz Backpulver #Quark Ei Öl SalzPfeffer zu einem Teig verkneten.
#Karotten raspeln #Porree in dünne Scheiben schneiden. Viel #Kräuter (#Estragon #Liebstöckel #Basilikum #Schnittlauch #Estragon #Oregano #Zitronenverbene) fein hacken. Mit #Frischkäse Ei #Zitronenabrieb kräftigem geriebenem #Käse (hier #Gruyère) mischen.
Den Teig ausrollen, mit der Füllung bestreichen, zu einer Rolle formen, in Scheiben schneiden + die Teile in eine Tortenform legen. Backen.

People at ICLC asked for a Moo Quark.

https://github.com/celesteh/SCMoo/releases/tag/0.002

This requires the latest version of BiLETools https://github.com/celesteh/BiLETools/releases/tag/v1.1

and JSONlib, which is the Quarks.gui

#iclc #iclc2025 #MOO #SuperCollider #Quark #VirtualReality #RetroStyleGaming

We start from the electron mass and each increment is greater than the previous one, there is no way to refine the result by playing on the number of iterations.
Only uses universal constants are used in the calculation. Check it.
You won't come out of this reading unscathed !
https://science-wide-open.blogspot.com/2024/10/relative-mass-proton-electron.html
#Physics #QuantumPhysics #proton #neutron #electron #Quark #Quarks #QCD

More calculation details on the link.
The program to generate those numbers is available there, check it.
No cheating. But you won't come out of this reading unscathed.
https://science-wide-open.blogspot.com/2024/10/relative-mass-proton-electron.html
#Physics #QuantumPhysics #Quark #Quarks #QCD

Say it again, y’all…

#StarTrek #DS9 #DeepSpace9 #Quark #EdwinStarr

Yes, but have you ever been summarily dismissed by Kre-O Quark?

#LEGO #NotLEGO #KreO #Kreon
#Quark #StarTrek #Minifigure
#DS9 #DeepSpaceNine #Ferengi

Frisch im Foodblog eingezogen ist übrigens mein Rezept für Quarkbrot. Es besteht aus einem super simplen Teig, der auch sehr gut für Brötchen, Burger- und Hotdog-Buns oder auch (psssst!) Pizza geeignet ist. (Swipe)
Hinein wandert nur Mehl, jede Menge Quark, Salz und Backpulver - keine Hefe. Der Teig wird geknetet, geformt und dann direkt gebacken.

https://www.magischer-kessel.de/2023/10/selbstgebackenes-weissbrot-rezept-fuer-quarkbrot-broetchen/

Als Ergebnis habt ihr ein softes, leckeres und proteinreiches Weißbrot mit Kruste, das auch am nächsten Tag noch schmeckt. Je nach Größe von Brot und Brötchen habt ihr in unter einer Stunde frische Brötchen oder Brot - mit Pizza geht es noch schneller, ist ja klar.

Ich verrate euch auch das Geheimnis für wunderbar weiche Burger-Brötchen!

Vielen Dank fürs Weiterverteilen des Links oder für Boosts über die Grenzen meiner Mini-Instanz hinaus! Eure Handlungen nähren mein Blog. Danke! 🥰

#food #Quark #Topfen #Quarkbrot #Weißbrot #Brot #FrischGebacken #Brotbacken #BurgerBuns #worldbreadday #worldbreadday2023 #WelttagDesBrotes #backen

@food @foodblogger @kochen

Sommer-#Lieblingsessen: Kartoffeln mit Kräuterquark und Leinöl.
Echtes #soulfood. 💚

#Quark, #Joghurt, #Milch, #Kartoffeln, #Gurke, #Tomaten, #Leinöl: alles #regional und zum Teil direkt von #Hofladen bzw. #Verkaufsautomaten.

Die Kräuter teils vom Balkon - #saisonal.

@slowfood

Follow up on Causality as an emergent phenomenon...

(Ref. to: https://qoto.org/@Pat/106722620334765036)

I found sources on the topic:

Causality – Complexity – Consistency:
Can Space-Time Be Based on Logic and Computation?
https://arxiv.org/pdf/1602.06987.pdf

Causal Emergence in Quantum Mechanics
https://arxiv.org/pdf/1901.07471.pdf

Perfect signaling among three parties
violating predefined causal order
https://arxiv.org/pdf/1312.5916.pdf

Causality theory for closed cone structures with applications
https://arxiv.org/pdf/1709.06494.pdf

Plus an older article, "CPT Violation Implies Violation of Lorentz Invariance" by O.W. Greenberg, which might be related to the topic.
https://arxiv.org/abs/hep-ph/0201258

I just found these yesterday on arXiv and really haven't vetted them much. There's more out there, mostly from the last decade or so. Not sure why I couldn't find this before -- I tried multiple times this year to find this stuff and now a week after I posted here I find a bunch of stuff. Go figure...

Some of it is about non-locality and some also on temporal non-causality like disordered cause/effect. (Some authors use the term acausality instead of non-causality.)

Also, there's a prof at U. Miss. (Luca Bombelli, www.phy.olemiss.edu/~luca/) with some nice reference lists:

Causality in Quantum Field Theory
https://www.phy.olemiss.edu/~luca/Topics/st/causal_qft.html

Causality in Quantum Theory
https://www.phy.olemiss.edu/~luca/Topics/st/causal_qm.html

Causality
https://www.phy.olemiss.edu/~luca/Topics/st/causal.html

Hope this useful.

-------------
#einstein #bohr #causality #spacetime #belltest #epr #paradox #light
#atom #atoms #electron #proton #quark #neutron #electricity #stem #technology
#cern #matter #energy #higgs #particle #lorentz #simultaneity #lightcone
#physics #QM #relativity #gravity #time #space

More detail on the non-causality poll...

I'd expect adherents to quantum mechanics to choose "sometimes".

Since QM appears to introduce uncertainty (probabilistic) in place of causality (deterministic) (i.e., it moves from certainty toward randomness), I don't see why a deeper dive couldn't move entirely to randomness (non-causality).

Non-causality appears to be a generalization of nonlocality (or perhaps complimentary to it).

Because of the results of the Bell test experiments, there appears to be renewed interest in explicit theories of nonlocality (e.g., extentions of de Broglie–Bohm theory) to make QM more palatable.

I think the development of a construct for a non-causal extent with causality emergent at macroscopic levels (or emergent at the quantum/macro interface) could serve the same purpose, but I haven't been able to find anything on that.

*** Does anybody know of anyone who is working on that? ***

Here are some more hashtags to cast the net a bit wider. (feel free to comment even after the poll is complete):

#einstein #bohr #causality #spacetime #belltest #epr #paradox #light
#atom #atoms #electron #proton #quark #neutron #electricity #stem #technology
#cern #matter #energy #higgs #particle #lorentz #simultaneity #lightcone
#physics #QM #relativity #gravity #time #space

Something’s Up in Switzerland: Explaining the B Meson News from the Large Hadron Collider - Particle physics is a field of extremes. Scales always have 10really big number as... - https://hackaday.com/2021/05/13/somethings-up-in-switzerland-explaining-the-b-meson-news-from-the-large-hadron-collider/ #largehadroncollider #particleaccelerator #particlephysics #quantumphysics #currentevents #supercollider #originalart #accelerator #science #physics #quark #news #lhcb #lhc

A Tetraquark for Muster Mark! - The holy grail of every particle physics experiment is the discovery of a new particle. Finding a ne... - https://hackaday.com/2020/08/13/a-tetraquark-for-muster-mark/ #subatomicparticle #hackadaycolumns #nuclearphysics #strongforce #pentaquark #tetraquark #science #quark #lhcb #lhc