Someone Just Created a Black Hole Analog Using Quantum Effects
Summary
TLDRThe video discusses the creation of an analog black hole using quantum effects in material, exploring its potential implications for studies on the universe and gravity. It explains the concept of Sonic black holes and how they mimic real black holes, including the observation of Hawking radiation. The video highlights a recent study that stabilizes quantum vortices to create a larger Quantum Vortex, resembling a black hole and exhibiting interesting effects similar to those of actual black holes. This breakthrough could bring us closer to understanding quantum physics and the nature of gravity.
Takeaways
- π The discussion revolves around an experiment that created an analog black hole on Earth, made from materials with quantum effects.
- π¬ Analog black holes are microscopic in size and help us understand properties of real black holes, gravity, and the universe.
- π Sonic or acoustic black holes use sound waves instead of light and matter to mimic black hole effects.
- πΆ Hawking radiation has been observed in sonic black holes, emitting energy from the equivalent of an event horizon.
- πͺοΈ Researchers have recreated a rotating black hole, known as a Kerr black hole, demonstrating the effect of super radiance.
- π§ Superfluids, like helium 3 and 4, have zero viscosity and can be used to create more accurate analog black holes due to their quantum properties.
- π Superfluids can create quantized vortices that theoretically spin indefinitely, but individual vortices are unstable and challenging to study.
- π A recent study found a way to stabilize quantum vortices by merging them into a larger one, creating a larger, more stable analog black hole.
- π The stabilized vortex exhibited unusual standing waves similar to those observed from colliding black holes, suggesting a resemblance to gravitational environments.
- π€ The experiment brings us closer to combining quantum effects with classical physics to explain phenomena in black holes and gravity.
- π The concept of emerging gravity is supported by these experiments, proposing that gravity is not a force but a result of complex systems.
Q & A
What is the main topic of the discussion?
-The main topic is the creation of an analog black hole or a black hole replica made entirely out of material possessing quantum effects, and its potential implications for various studies involving black holes and our understanding of the universe.
Why is it difficult to study black holes directly?
-Direct study of black holes is challenging because the nearest one is approximately 2,000 light years away from us, making research dependent on simulations, direct observations using telescopes, and predictions from various theories.
What is a Sonic black hole?
-A Sonic black hole, also known as an acoustic black hole, is a laboratory-made phenomenon where phonons or perturbations of sound travel through sound waves and can sometimes fall into a hypothetical black hole region, unable to escape.
What is an Einstein condensate?
-An Einstein condensate is a state of matter where a large number of particles are cooled down so much that they begin to act like one large superparticle or a large superwave, capable of producing a light black hole by slowing down light significantly.
What is the significance of Hawking radiation in the context of Sonic black holes?
-In the context of Sonic black holes, Hawking radiation is a phonic version of the original concept, where sound waves emit energy from the equivalent of the event horizon, demonstrating the black hole's properties.
What is a superfluid and why is it relevant to black hole research?
-A superfluid is a state of matter with zero viscosity, producing no friction and not sticking to anything, which is relevant to black hole research because it allows for the creation of Quantum vortices that can mimic the effects of black holes without the complications of viscosity.
What unusual behavior does superfluid helium exhibit?
-Superfluid helium exhibits behaviors such as climbing up the walls of a container, defying gravity, and creating fountains that can function indefinitely due to its zero viscosity and the ability to stir and create vortices that spin indefinitely.
How do researchers create a stable Quantum Vortex?
-Researchers create a stable Quantum Vortex by merging individual quantized vortices into one large vortex at certain frequencies, using a specific wave-vortex interaction and a miniaturized device to stabilize the system.
What effects were observed in the newly created Quantum Vortex?
-In the newly created Quantum Vortex, researchers observed unusual standing waves similar to those detected from black holes, especially after black hole collisions, and the formation of bound states, suggesting a resemblance to the gravitational environment around typical black holes.
How do these experiments contribute to our understanding of gravity?
-These experiments contribute to our understanding of gravity by exploring the concept of emerging gravity, which proposes that gravity may not be a force but a phenomenon that arises in certain complex systems, potentially including those involving quantum vortices and black holes.
What is the potential implication of these studies for future research?
-The potential implication of these studies is that they may eventually lead to explaining everything in the universe by combining quantum effects with classical physics and providing insights into the nature of black holes and gravity.
Outlines
π Introduction to Analog Black Holes
This paragraph introduces the concept of analog black holes, which are experimentally created phenomena that mimic the properties of actual black holes. It explains that these analogs are not destructive like real black holes but are fascinating replicas made from materials exhibiting quantum effects. The potential implications of studying these analog black holes are vast, touching on our understanding of the universe, gravity, and more. The paragraph sets the stage for a deeper discussion on the subject by mentioning the challenges of directly studying black holes due to their immense distance from Earth and the reliance on simulations and observations from telescopes.
π¬ Experiments with Superfluids and Sonic Black Holes
The second paragraph delves into the experimental methods used to create analog black holes, particularly focusing on the use of superfluids and sonic black holes. It describes how superfluids, such as helium isotopes cooled near absolute zero, exhibit unusual properties like zero viscosity and the ability to create quantized vortices. Sonic black holes, which replace light with sound waves, are also discussed, highlighting their ability to exhibit phenomena like Hawking radiation and super radiance. The paragraph emphasizes the breakthroughs in understanding black hole properties through these experiments, despite the challenges posed by the viscosity of liquids and the need for superfluids to accurately mimic black hole environments.
π Stabilizing Quantum Vortices and Emerging Gravity
The final paragraph discusses a recent study that has potentially discovered a way to stabilize quantum vortices, creating a larger and more enduring analog black hole. By merging individual quantized vortices into one large vortex, researchers have been able to create a stable structure that exhibits effects similar to those observed in real black holes, such as standing waves and bound states. The paragraph suggests that these experiments could bring us closer to understanding the quantum effects and classical physics involved in black holes and the universe at large. It also touches on the concept of emerging gravity, which proposes that gravity may not be a force but a phenomenon that arises in complex systems, including those involving quantum vortices.
Mindmap
Keywords
π‘Analog Black Hole
π‘Bose-Einstein Condensate
π‘Sonic Black Holes
π‘Event Horizon
π‘Hawking Radiation
π‘Superfluidity
π‘Quantum Vortex
π‘Standing Waves
π‘Emergent Gravity
π‘Quantum Effects
Highlights
Anton discusses an experiment that created an analog black hole on Earth using quantum effects.
The experiment involves creating a black hole replica to study its properties without the dangers of a real black hole.
Analog black holes can be made from extremely small, usually microscopic, materials that mimic the properties of black holes.
Bose-Einstein condensates are used to create light black holes by slowing down light significantly.
Sonic or acoustic black holes use sound waves and phonons to study black hole effects.
Sonic black holes have shown to exhibit Hawking radiation, emitting energy from the event horizon.
Researchers recreated a rotating black hole and demonstrated the effect known as super radiance.
Super radiance is a process that extracts energy from the rotation of a black hole, producing more energy than other sources.
Viscosity in liquids causes uncertainty and problems in mimicking black hole effects.
Superfluids, like helium isotopes near absolute zero, exhibit zero viscosity and quantum effects.
Superfluids can create vortices that spin indefinitely due to the absence of friction.
Stirring a superfluid doesn't cause immediate movement, but at a critical angular velocity, it forms quantized vortices.
Recent study found a way to merge individual quantized vortices into a stable, larger quantum vortex.
The merged vortex behaves as a multiple quantized object, stabilizing the quantum vortex.
The stabilized vortex exhibited interesting effects, including unusual standing waves similar to black holes.
The standing waves produced by the vortex suggest similarities to gravitational environments around black holes.
The experiment combines quantum fields and astrophysical black hole effects, bringing us closer to understanding gravity.
The discovery supports the idea of emerging gravity, proposing that gravity is not a force but a result of complex systems.
Experiments with superfluids may eventually explain everything in the universe, including gravity.
Transcripts
hello wonderful person this is Anton and
today we're going to discuss an
extremely interesting experiment that to
some extent created a black hole right
here on planet Earth okay not like an
actual black hole that's going to
destroy everything but a very intriguing
analog black hole or I guess a black
hole replica made entirely out of
material possessing Quantum effects and
by itself this actually has a lot of
potential implications for many
different studies involving black holes
the Universe our understanding of
everything in it and even things like
gravity and so let's actually discuss
this a little bit more because as of
right now this is probably one of the
most exciting experiments involving
what's known as analog black holes but
first a few basic concepts to help you
understand so obviously right now
there's really no way for us to directly
study black holes especially because the
nearest one is almost 2,000 like years
away from us which means that all of the
research involved in black holes is
usually either based on simulations or
direct observations using various
telescopes and previous predictions from
a lot of different ideas and a lot of
different theories but there is actually
another way an experimental way where we
can technically create something really
small usually microscopic in size that
kind of act like a black hole and helps
us understand a lot of its properties
for example one way to create something
that possesses certain properties of
black ho is by forming what's known as B
Einstein condensate a type of a state of
matter where a lot of particles are
cooled down so much that they basically
start acting like one large super
particle or technically one large
superwave and this can actually produce
what's known as a light black hole
because they essentially slow down light
so much that it can even sometimes stop
it completely but a much more common
example in the lab usually uses what's
known as Sonic black holes or basically
black holes where everything is replaced
with sound sometimes also referred to as
acoustic black holes where essentially
instead of light and instead of matter
you'll have phonons or perturbations of
sound that can travel through sound
waves and sometimes you can actually
make them fall into a kind of a
hypothetical black hole where they're
unable to escape a certain region
normally this region is formed by some
kind of a fluid and so here by using
certain liquids and then watching sound
propagate inside of them researchers
found different ways to kind of mimic
the effects from various black holes as
well and intriguingly in just the last
few years there have been some major
breakthroughs because these unusual
black holes seem to exhibit very similar
effects to what we actually expect from
a real black hole for example many
different Sonic black holes seem to
exhibit Hawken radiation a kind of a
phonic version of it or basically using
sound waves but they essentially emit
energy from the equivalent of the Event
Horizon we've briefly discussed one of
these experiments in one of the videos
in the description and here the Event
Horizon is basically defined by the flow
of the liquid here the the speed of flow
is greater than the speed of sound so it
actually forms a kind of an event
horizon moreover back in 2010 and
actually in several other experiments
afterwards the researchers were able to
recreate a kind of a rotating black hole
also known as care black hole and here
they demonstrated the effect known as
super Radiance a process that's able to
extract energy from the rotation of the
black hole and usually much more energy
than we can actually get from anything
else and this by itself is a really
exciting concept and astronomers have
actually seen signs of this from a lot
of different black holes out there real
ones not the Sonic ones and so these
black hole replicas or sonic blacko seem
to be possible because fluids tend to
experience very similar effects and even
exhibit very similar properties
especially when it comes to motion of
stuff inside of them but the thing is
there's always been one problem most
liquids also have quite a lot of
viscosity basically they kind of stick
to things and so this viscosity presents
a a lot of uncertainty and a lot of
problems it actually creates a lot of
random motion that would not exist in
Black Horse because we don't expect
space time to stick to anything and so
for many years scientists have been
proposing to use super liquids or super
fluids fluids that are basically perfect
containing no viscosity producing no
friction and not sticking to anything at
all and though it might sound like
something that doesn't exist it totally
does in the realm of quantum physics and
it's known as super fluidity he kind of
a causing to Super conductivity with the
two most well-known super fluids both
being helium helium 3 and helium 4 and
so isotopes of helium when cool down
dramatically here we're talking about
temperatures almost at Absolute Zero
will start acting really really strange
there's this much older video from the
60s kind of showing us some of these
effects one of the craziest effects is
visible right here it tends to actually
crawl up the walls of any kind of a
container and then drips down like
there's no gravity and it doesn't
actually care and it can even create
unusual fountains that can basically
function indefinitely because there's no
viscosity no friction and it can
basically just feed itself over and over
and so these very strange helium
experiments back in the days first of
all blew everyone's minds and later on
made everyone realize that we needed new
theories new explanations and very
likely a lot of quantum physics but
that's beside the point the point is
that these super liquids do exist we
know quite a lot about them already and
they do have very unusual properties
such as zero viscosity which allows them
to move without any loss of energy and
more importantly allows them to be
stirred and to create vortices that
would technically spin indefinitely so
in theory if you were to store helium 4
at these extreme temperatures it should
basically spin forever and ever and
never stop but it's a Quantum fluid so
that means that it basically laughs at
our classical ideas
and anytime we try something it
surprises us once again turns out if you
stir a Quantum super fluid first of all
it doesn't actually do anything at all
and so here the experiments were really
shocking the researchers were basically
trying to spin it by spinning the
container itself but because there's no
viscosity instead of going with a
container the liquid helium would just
stay not moving and not doing anything
however it turns out that if you spin
the container faster and faster at some
point the container reaches a kind of a
critical angular velocity and so instead
of being stationary now the super fluid
starts to form Vortex but not just one
many of them and they kind of look like
this they're extremely small in size
practically miniature and they're
referred to as aoso Vortex and moreover
the number of these vertices and the way
they behave all of this is quantized in
other words it can only exist in certain
States it can only spin in a certain way
it can only create certain patterns and
it can not change in any other way and
so unlike water that basically spins any
way it wants these Quantum vertices are
extremely different and as you increase
the rotation more and more more of these
quantise vertices start to appear
changing the pattern accordingly which
kind of doesn't actually help us with
these studies of black o because we
don't think black ho do the same or at
least that's not what science shows us
so far which made a lot of these studies
using super fluid helium a little bit
challenging they could only produce tiny
tiny vortices which technically do
represent tiny black holes but it's
difficult to see them difficult to study
and they don't actually last very long
they're not stable they disappear all
the time and that's until now a recent
study just came out and potentially
discovered a way to stabilize everything
and to actually create a relatively
large Quantum Vortex a picture of which
you see right here and the only way they
were able to create this is by finding a
way to merge all these individual
quantize vertices into one large one
this seems to happen at certain
frequencies so everything has to spin in
just the right way with the vortex then
behaving as a kind of a multiple
quantized object and so despite the
instability of individual Quantum
vertices the researchers found a way to
stabilize it by using a very specific
wave Vortex interaction and using a
miniaturized device you see right here
which then creates this analog black
hole resembling a typical Vortex and
even more importantly when this unusual
Vortex was created it started to exhibit
extremely interesting effects first of
all they observed unusual standing waves
and in some sense these waves are
extremely similar to what we detect from
black holes especially after black hole
Collision these overtones previously
observed from various colliding black
holes are a type of a ring down that
happen right after the black hole is
formed and that's actually something
that was just observed here as well as
soon as those tiny quantized vortices
merged they produce something similar
here's the image of these unusual bound
States or these standing waves that were
also produced in this Vortex referred to
as bound States and that basically
suggests that a lot of this resembles
gravitational environment around typical
black holes they seem to possess a lot
of similar effects and they even seem to
possess effects that we only discovered
in just the last few years basically
this Vortex seems to resemble space-time
Dragon very very well naturally because
it contains no viscosity but also
because it contains a lot of quantum
effects and that's actually the real
important part today astrophysicists
believe that the only way we can explain
what's happening in black holes and the
only way we can explain things like
gravity is really by combining Quantum
effects with classical physics nobody
knows what the answer is yet but it's
really studies like this that might
finally lead us to an actual answer
because this is a combination of quantum
fields and the effects we observe in
astrophysical black holes this takes us
just a step closer to maybe explaining
everything once and for all but on top
of this there's Discovery here that's
basically staring Us in the face for
some reason a lot of these different
mimics a lot of these analog black hols
seem to always result in producing
effects similar to gravity and that
actually relates to the idea known as
emerging Gravity the idea that proposes
that maybe gravity is not actually a
force but instead is something that just
happens in certain complex systems
including systems involving black Hol
stars and galaxies or systems involving
Quantum vortices and so in other words
these experiments using super fluids May
potentially explain everything in the
universe at some point in the future
they don't yet but it's experiments like
this that are able to create mimic black
holse that are most likely to answer all
of these questions but obviously this is
just a start and we don't have any
answers yet once we do I'll make sure to
make another video Until then thank you
for watching subscribe check out all the
links and all of the papers in the
description below support this channel
patreon by joining Channel membership or
by buying the wonderful person t-shirt
you can find in the description stay
wonderful I'll see you tomorrow and as
always
[Music]
[Music]
bye-bye
e
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