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What sunlight actually hits inside a leaf #photosynthesis #chloroplast #molecularbiology #biochemistry #scienceanimation #learnontiktok #learning #funfacts #coolscience #simulation #nanomachine #biotok #science #3danimation From a leaf to the atoms that catch the light, in one continuous dive. Every molecule here is a real structure from crystallography and cryo-EM: photosystem II (the...

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iJEP Studio

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270,000 görüntüleme • 26 gün önce •via TikTok

Eğitim#photosynthesis#chloroplast#molecularbiology#biochemistry#scienceanimation#learnontiktok#learning#funfacts#coolscience#simulation#nanomachine#biotok#science#3danimation#atpsynthase#atp
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Your Cells Have Tiny Rotating Motors. Right now, trillions of microscopic motors are spinning inside you. ATP synthase is a real molecular machine. Protons flow through it and spin its rotor at up to 100 turns per second. Every turn makes 3 ATP, the energy that keeps you alive. Scientists filmed it spinning in 1997, and the discovery won a Nobel Prize. 🧬⚡ Follow for more incredible machines that keep you alive! #science #biology #ATP #mitochondria #cells #molecularbiology #biochemistry #sciencefacts
2:40

Your Cells Have Tiny Rotating Motors. Right now, trillions of microscopic motors are spinning inside you. ATP synthase is a real molecular machine. Protons flow through it and spin its rotor at up to 100 turns per second. Every turn makes 3 ATP, the energy that keeps you alive. Scientists filmed it spinning in 1997, and the discovery won a Nobel Prize. 🧬⚡ Follow for more incredible machines that keep you alive! #science #biology #ATP #mitochondria #cells #molecularbiology #biochemistry #sciencefacts

novextri

38,200 görüntüleme • 28 gün önce

Bacteria Flagellar Motor #learnontiktok #intelligentdesign #evolution #molecular #nanomachine #learning #funfacts #biotok #science #stem #3danimation #atp #biochemistry #coolscience #simulation #atpsynthase #ATP #blender3d A cut-open E. coli slice simulated based on real structures and biology, every molecule you see is a real one: its shape was worked out atom by atom by scientists,using electron microscopes ,X-ray crystallography et al. Everything is drawn to true scale; only time is slowed, about 200×.The sound is not REAL though :) The yellow machine is the flagellar motor: a rotor about 50 nm across, driven by protons flowing through its stator units, turning the hook and filament at ~100 turns per second. Watch how the singal travel to falgelar motor. The teal structures at the lower right are the cell’s “nose” (chemoreceptor array): they sense what’s outside. When the "smell" (for example, nutrient molecules) changes, a protein at their base hands a chemical tag (phosphorylation) to a small messenger. The tagged messenger (orange, cheY) drifts across the cell and latches onto the bottom ring of the motor. When enough of them are attached, the ring flips — the flash is the switch — and the motor runs backwards. Backwards, the propellers fly apart and the cell tumbles; forwards again, it sets off in a new direction. That’s how a cell with no brain finds its way to food. Also in the picture: two more rotary machines (ATP synthase)at the upper left that make the cell’s fuel from the same ion current, a pump that throws out toxins, DNA being copied, a ribosome building a protein, and the three-layer wall with its sugar forest on the outside.
1:15

Bacteria Flagellar Motor #learnontiktok #intelligentdesign #evolution #molecular #nanomachine #learning #funfacts #biotok #science #stem #3danimation #atp #biochemistry #coolscience #simulation #atpsynthase #ATP #blender3d A cut-open E. coli slice simulated based on real structures and biology, every molecule you see is a real one: its shape was worked out atom by atom by scientists,using electron microscopes ,X-ray crystallography et al. Everything is drawn to true scale; only time is slowed, about 200×.The sound is not REAL though :) The yellow machine is the flagellar motor: a rotor about 50 nm across, driven by protons flowing through its stator units, turning the hook and filament at ~100 turns per second. Watch how the singal travel to falgelar motor. The teal structures at the lower right are the cell’s “nose” (chemoreceptor array): they sense what’s outside. When the "smell" (for example, nutrient molecules) changes, a protein at their base hands a chemical tag (phosphorylation) to a small messenger. The tagged messenger (orange, cheY) drifts across the cell and latches onto the bottom ring of the motor. When enough of them are attached, the ring flips — the flash is the switch — and the motor runs backwards. Backwards, the propellers fly apart and the cell tumbles; forwards again, it sets off in a new direction. That’s how a cell with no brain finds its way to food. Also in the picture: two more rotary machines (ATP synthase)at the upper left that make the cell’s fuel from the same ion current, a pump that throws out toxins, DNA being copied, a ribosome building a protein, and the three-layer wall with its sugar forest on the outside.

iJEP Studio

1,200,000 görüntüleme • 1 ay önce

The tiniest engine on Earth#learnontiktok #atpsynthase #flagellum #biotok #funfacts #biology #nanomachine #learning #molecularbiology #coolscience #scienceanimation #molecularmotor #stem Powered by a natural outboard engine, a bacterium relies on flowing protons to spin its flagellum hundreds of times a second through water. Inside, thousands of nanomachines operate in a dense labyrinth of DNA that spans a thousand times the cell's length. As food grows scarce, surface receptors trigger a messenger that reverses the motor. The cell tumbles, recalibrates, and races off in a new direction. By repeating this cycle, these invisible organisms successfully hunt for food and navigate their environment.
1:20

The tiniest engine on Earth#learnontiktok #atpsynthase #flagellum #biotok #funfacts #biology #nanomachine #learning #molecularbiology #coolscience #scienceanimation #molecularmotor #stem Powered by a natural outboard engine, a bacterium relies on flowing protons to spin its flagellum hundreds of times a second through water. Inside, thousands of nanomachines operate in a dense labyrinth of DNA that spans a thousand times the cell's length. As food grows scarce, surface receptors trigger a messenger that reverses the motor. The cell tumbles, recalibrates, and races off in a new direction. By repeating this cycle, these invisible organisms successfully hunt for food and navigate their environment.

iJEP Studio

1,000,000 görüntüleme • 7 gün önce

The reason you breathe oxygen has nothing to do with your lungs. It's because your cells need somewhere to dump electrons — and without a final acceptor at the end of the chain, ATP synthesis stops within seconds and you die. Your mitochondria run a biological transformer: four protein complexes pass high-energy electrons through redox centers like GPU layers in a forward pass, each releasing a small voltage drop to pump protons across a membrane. That gradient spins a molecular turbine — ATP synthase — producing the energy currency that every cell, LLM server included, ultimately traces back to. 7 minutes. Bookmark & watch today.
6:21

The reason you breathe oxygen has nothing to do with your lungs. It's because your cells need somewhere to dump electrons — and without a final acceptor at the end of the chain, ATP synthesis stops within seconds and you die. Your mitochondria run a biological transformer: four protein complexes pass high-energy electrons through redox centers like GPU layers in a forward pass, each releasing a small voltage drop to pump protons across a membrane. That gradient spins a molecular turbine — ATP synthase — producing the energy currency that every cell, LLM server included, ultimately traces back to. 7 minutes. Bookmark & watch today.

Deliriumm

120,607 görüntüleme • 1 ay önce

This Motor Keeps You Alive - Inside nearly every cell in your body, a microscopic motor called ATP synthase spins over 100 times per second, converting proton flow into ATP—the energy that powers your cells. Trillions of these tiny molecular machines work continuously to keep you alive.
0:50

This Motor Keeps You Alive - Inside nearly every cell in your body, a microscopic motor called ATP synthase spins over 100 times per second, converting proton flow into ATP—the energy that powers your cells. Trillions of these tiny molecular machines work continuously to keep you alive.

TheBrainMaze TBM

25,241 görüntüleme • 1 gün önce

Watch hemoglobin grab oxygen, one at a time#learnontiktok #scienceanimation #coolscience Your blood is never blue 🩸 Veins only look blue because skin bounces blue light back while dark blood soaks up the red. The red is hemoglobin: 4 protein chains (2 α, 2 β), each holding a heme with an iron atom at its heart. When the first O₂ lands, the iron pulls on a histidine, a helix shifts… and the whole molecule rocks from the tense T state to the relaxed R state. Each oxygen makes the next one easier: that’s cooperativity. Fully loaded in the lungs, it lets go in your tissues. Carbon monoxide is deadly because it grabs those same irons and won’t let go.#biochemistry #learning #nanomachine #biology #science #molecularbiology #biochemistry #blood #oxygen #learnontiktok #scitok #animation #blender3d #protein #structuralbiology
1:02

Watch hemoglobin grab oxygen, one at a time#learnontiktok #scienceanimation #coolscience Your blood is never blue 🩸 Veins only look blue because skin bounces blue light back while dark blood soaks up the red. The red is hemoglobin: 4 protein chains (2 α, 2 β), each holding a heme with an iron atom at its heart. When the first O₂ lands, the iron pulls on a histidine, a helix shifts… and the whole molecule rocks from the tense T state to the relaxed R state. Each oxygen makes the next one easier: that’s cooperativity. Fully loaded in the lungs, it lets go in your tissues. Carbon monoxide is deadly because it grabs those same irons and won’t let go.#biochemistry #learning #nanomachine #biology #science #molecularbiology #biochemistry #blood #oxygen #learnontiktok #scitok #animation #blender3d #protein #structuralbiology

iJEP Studio

21,000 görüntüleme • 24 gün önce

This is how cells make energy - the production of ATP. All life requires ATP for energy. Without it, cells cannot function, and Life cannot survive. That means ATP Synthase is required from the very start of Life. Evolution cannot build ATP, because evolutionary processes require ATP to even function - creating a massive chicken-or-the-egg paradox. You can't have life without ATP, but you can't get ATP until you have life. Evidence it was intelligently designed. ATP Synthase is also incredibly complex. In simpler prokaryotic organisms (bacteria, etc), the molecule has 8 unique proteins organized into 22 subunits, all working together in a coordinated system. In higher level eukaryotes (humans, mammals, etc), the molecule has 18 unique proteins organized into 29 coordinated subunits making up the system. The simpler versions still require a minimal set of specified proteins, totaling more than 3,500 amino acids, sequenced perfectly in line to create all the proteins, all engineered to perfection. The odds of something like this coming together by chance are incomprehensibly small, it's effectively impossible. This system is a clear and obvious sign of design.
0:57

This is how cells make energy - the production of ATP. All life requires ATP for energy. Without it, cells cannot function, and Life cannot survive. That means ATP Synthase is required from the very start of Life. Evolution cannot build ATP, because evolutionary processes require ATP to even function - creating a massive chicken-or-the-egg paradox. You can't have life without ATP, but you can't get ATP until you have life. Evidence it was intelligently designed. ATP Synthase is also incredibly complex. In simpler prokaryotic organisms (bacteria, etc), the molecule has 8 unique proteins organized into 22 subunits, all working together in a coordinated system. In higher level eukaryotes (humans, mammals, etc), the molecule has 18 unique proteins organized into 29 coordinated subunits making up the system. The simpler versions still require a minimal set of specified proteins, totaling more than 3,500 amino acids, sequenced perfectly in line to create all the proteins, all engineered to perfection. The odds of something like this coming together by chance are incomprehensibly small, it's effectively impossible. This system is a clear and obvious sign of design.

Divinely Designed

61,199 görüntüleme • 9 ay önce

Zorya, the bacterial defense system that reels in a virus’s DNA and shreds it A virus lands on a bacterium, locks on with its tail fibres, drives its needle through the cell wall and pumps its genome inside. The cell was ready. Its defense system, Zorya, works like a motor: a flow of protons spins a long tail inside the cell, the spinning tail winds up the incoming viral DNA like a winch, and two enzymes arrive to cut it to pieces. The virus is left empty on the surface. The cell lives. Zorya was discovered by scientists in 2025, and it’s named after the Slavic goddess of the dawn, the guardian who keeps watch. Every bacterium carries defenses like this; this is what one of them looks like in action. #flagellarmotor #atpsynthase #learning #coolscience #molecularbiology #flagellum #scienceanimation #molecularmotor #biotok #phage #bacteria #virus #immunesystem #microbiology #molecularbiology #sciencevisualization #zorya #biology #science#learnontiktok #stem
1:02

Zorya, the bacterial defense system that reels in a virus’s DNA and shreds it A virus lands on a bacterium, locks on with its tail fibres, drives its needle through the cell wall and pumps its genome inside. The cell was ready. Its defense system, Zorya, works like a motor: a flow of protons spins a long tail inside the cell, the spinning tail winds up the incoming viral DNA like a winch, and two enzymes arrive to cut it to pieces. The virus is left empty on the surface. The cell lives. Zorya was discovered by scientists in 2025, and it’s named after the Slavic goddess of the dawn, the guardian who keeps watch. Every bacterium carries defenses like this; this is what one of them looks like in action. #flagellarmotor #atpsynthase #learning #coolscience #molecularbiology #flagellum #scienceanimation #molecularmotor #biotok #phage #bacteria #virus #immunesystem #microbiology #molecularbiology #sciencevisualization #zorya #biology #science#learnontiktok #stem

iJEP Studio

1,500,000 görüntüleme • 13 gün önce

This is mind ATP Synthase The energy pump that powers every cell in every lifeform on Earth, slowed down by over 1,000x. Without ATP Synthase, life cannot exist. This little nano-machine is made up of a minimum of 8 distinct proteins, all designed perfectly to fit together and operate in a coordinated system that takes in ADP and turns it into ATP, which the cell uses to power metabolic processes. It's designed to only allow certain molecules in & out. Any mistakes, and it could flood the cell with toxic waste in a matter of seconds, killing everything. Each protein building block must fit perfectly together, much like all the pieces inside your phone. Without all the proteins fit & working together from the start, ATP Synthase cannot function, and Life cannot exist. But making things even more complex, ATP Synthase doesn't operate alone. It's located inside the cell membrane, where it actively works with other molecules to ensure the ATP it creates gets to the right place. It's a whole integrated network of energy movement within each cell, without which, Life could not exist. All these pieces must exist together, from the beginning, for Life to be possible. Which means it can't arise piece by piece through evolution - because the very process of evolution requires the whole system. Life requires this system in order to produce the energy it needs to replicate & evolve - but replication & evolution is supposed to have created it. You can't have one without the other. There are no simpler versions - it's literally all or nothing. This is clear evidence of an intelligently designed system. What more evidence do you need?
0:21

This is mind ATP Synthase The energy pump that powers every cell in every lifeform on Earth, slowed down by over 1,000x. Without ATP Synthase, life cannot exist. This little nano-machine is made up of a minimum of 8 distinct proteins, all designed perfectly to fit together and operate in a coordinated system that takes in ADP and turns it into ATP, which the cell uses to power metabolic processes. It's designed to only allow certain molecules in & out. Any mistakes, and it could flood the cell with toxic waste in a matter of seconds, killing everything. Each protein building block must fit perfectly together, much like all the pieces inside your phone. Without all the proteins fit & working together from the start, ATP Synthase cannot function, and Life cannot exist. But making things even more complex, ATP Synthase doesn't operate alone. It's located inside the cell membrane, where it actively works with other molecules to ensure the ATP it creates gets to the right place. It's a whole integrated network of energy movement within each cell, without which, Life could not exist. All these pieces must exist together, from the beginning, for Life to be possible. Which means it can't arise piece by piece through evolution - because the very process of evolution requires the whole system. Life requires this system in order to produce the energy it needs to replicate & evolve - but replication & evolution is supposed to have created it. You can't have one without the other. There are no simpler versions - it's literally all or nothing. This is clear evidence of an intelligently designed system. What more evidence do you need?

Divinely Designed

28,434 görüntüleme • 6 ay önce

Chlorophyll works by absorbing sunlight and turning it in to energy for the plant. You can extract it from a leaf, leaving it translucent [read more: [source 1: [source 2:
0:26

Chlorophyll works by absorbing sunlight and turning it in to energy for the plant. You can extract it from a leaf, leaving it translucent [read more: [source 1: [source 2:

Massimo

883,606 görüntüleme • 3 yıl önce

K for Kinesin: Kinesin functions as a molecular motor that moves along microtubules, utilizing the energy from ATP hydrolysis to pull cargo, such as organelles and vesicles, toward the plus end of the microtubule.
0:36

K for Kinesin: Kinesin functions as a molecular motor that moves along microtubules, utilizing the energy from ATP hydrolysis to pull cargo, such as organelles and vesicles, toward the plus end of the microtubule.

Ribosome Studio

28,915 görüntüleme • 5 ay önce

Opus 5 - Build a photorealistic ThreeJS app that zooms continuously through nine powers of ten, from a leaf on a branch down to the single magnesium atom at the centre of a chlorophyll molecule.
0:27

Opus 5 - Build a photorealistic ThreeJS app that zooms continuously through nine powers of ten, from a leaf on a branch down to the single magnesium atom at the centre of a chlorophyll molecule.

elvis

13,860 görüntüleme • 3 ay önce

DNA replication machinery #dna#satisfying #oddlysatisfying #learnontiktok #sciencetok #biotok#atp #polymerase ##simulation #coolscience #biochemistry By understanding the structure of DNA, scientists proposed—and later proved—that DNA serves as the template for copying genetic information. Using computer animation based on molecular research, we can now visualize how DNA replication takes place inside living cells. You’re looking at an assembly line of tiny molecular machines working together to duplicate DNA. The DNA double helix enters from the bottom left, where a molecular machine called helicase unwinds it into two separate strands. One strand is copied continuously, extending toward the right. The other strand is more complicated: because DNA can only be synthesized in one direction, it must be copied in short, separate segments. The strand forms loops that allow the replication machinery to coordinate the copying process. By the end, the original DNA molecule has been duplicated into two DNA molecules, each containing one original strand and one newly synthesized strand.
1:15

DNA replication machinery #dna#satisfying #oddlysatisfying #learnontiktok #sciencetok #biotok#atp #polymerase ##simulation #coolscience #biochemistry By understanding the structure of DNA, scientists proposed—and later proved—that DNA serves as the template for copying genetic information. Using computer animation based on molecular research, we can now visualize how DNA replication takes place inside living cells. You’re looking at an assembly line of tiny molecular machines working together to duplicate DNA. The DNA double helix enters from the bottom left, where a molecular machine called helicase unwinds it into two separate strands. One strand is copied continuously, extending toward the right. The other strand is more complicated: because DNA can only be synthesized in one direction, it must be copied in short, separate segments. The strand forms loops that allow the replication machinery to coordinate the copying process. By the end, the original DNA molecule has been duplicated into two DNA molecules, each containing one original strand and one newly synthesized strand.

iJEP Studio

597,700 görüntüleme • 1 ay önce

“Greg Allensworth is the worst ref in the ATP” Reilly Opelka BLASTS the chair umpire following his match and calls for the ATP to suspend him video Cheryl Murray
1:11

“Greg Allensworth is the worst ref in the ATP” Reilly Opelka BLASTS the chair umpire following his match and calls for the ATP to suspend him video Cheryl Murray

The Grandstand

457,076 görüntüleme • 1 yıl önce

Today marks the start of the ATP oral examination period (20 July – 14 August 2026). To every ATP student, this is our message to you: believe in yourself and trust the hard work that has brought you to this moment. We wish you confidence and every success in your oral examination. We are proud of you and look forward to celebrating your achievements. Best of luck! #ATP #OralExaminations #StudentSuccess #KSLExperience
0:21

Today marks the start of the ATP oral examination period (20 July – 14 August 2026). To every ATP student, this is our message to you: believe in yourself and trust the hard work that has brought you to this moment. We wish you confidence and every success in your oral examination. We are proud of you and look forward to celebrating your achievements. Best of luck! #ATP #OralExaminations #StudentSuccess #KSLExperience

The Kenya School of Law

15,995 görüntüleme • 3 ay önce

DNA relication machinery #learnontiktok #atpsynthase #flagellum #biotok #funfacts #biology #nanomachine #learning #molecularbiology #coolscience #scienceanimation #molecularmotor #biochemistry #stem Every time a bacterium divides, it must copy more than four million letters of DNA with astonishing accuracy. Behind this feat is a molecular assembly line called the replisome. At the front is the helicase, a ring-shaped motor made of six subunits. Fueled by ATP, it races along the DNA, pulling apart the double helix and exposing two single strands. But exposed DNA is unstable. Single-strand binding proteins quickly coat the strands, keeping them separated and protecting them until they can be copied. Now comes the copying machinery: two DNA polymerases, one for each strand. Each polymerase grips the DNA through a sliding clamp, a molecular ring that keeps it attached while it adds thousands of new DNA letters. But there's a problem. DNA polymerases can only build in one direction: from 5′ to 3′. At the replication fork, that creates two very different jobs. The leading strand runs in the right direction, allowing its polymerase to follow the helicase and copy DNA continuously. The lagging strand faces the opposite direction. It must be copied in short, separate pieces called Okazaki fragments. First, primase lays down a short RNA primer, creating a starting point for DNA synthesis. Then comes the clamp loader. Powered by ATP, it opens a sliding clamp, positions it around the primer, and snaps it shut, ready for the next round of copying. The lagging-strand polymerase then grabs the new clamp and starts building an Okazaki fragment. As synthesis continues, the DNA template loops out, forming a remarkable trombone-like structure. Once the polymerase reaches the previous fragment, it releases the DNA and jumps to a freshly loaded clamp to start again. Flexible tau proteins connect both polymerases and the helicase to the clamp loader, coordinating the entire machine into one synchronized molecular factory. Together, they can copy roughly a thousand DNA letters every second. And accuracy is just as remarkable as speed. A proofreading subunit catches many incorrectly paired letters and removes them before they become permanent mistakes. Finally, the RNA primers are removed and replaced with DNA, and DNA ligase seals the remaining gaps, joining all the fragments into one continuous strand. Two complete DNA molecules, copied from one, ready for the next generation.
1:31

DNA relication machinery #learnontiktok #atpsynthase #flagellum #biotok #funfacts #biology #nanomachine #learning #molecularbiology #coolscience #scienceanimation #molecularmotor #biochemistry #stem Every time a bacterium divides, it must copy more than four million letters of DNA with astonishing accuracy. Behind this feat is a molecular assembly line called the replisome. At the front is the helicase, a ring-shaped motor made of six subunits. Fueled by ATP, it races along the DNA, pulling apart the double helix and exposing two single strands. But exposed DNA is unstable. Single-strand binding proteins quickly coat the strands, keeping them separated and protecting them until they can be copied. Now comes the copying machinery: two DNA polymerases, one for each strand. Each polymerase grips the DNA through a sliding clamp, a molecular ring that keeps it attached while it adds thousands of new DNA letters. But there's a problem. DNA polymerases can only build in one direction: from 5′ to 3′. At the replication fork, that creates two very different jobs. The leading strand runs in the right direction, allowing its polymerase to follow the helicase and copy DNA continuously. The lagging strand faces the opposite direction. It must be copied in short, separate pieces called Okazaki fragments. First, primase lays down a short RNA primer, creating a starting point for DNA synthesis. Then comes the clamp loader. Powered by ATP, it opens a sliding clamp, positions it around the primer, and snaps it shut, ready for the next round of copying. The lagging-strand polymerase then grabs the new clamp and starts building an Okazaki fragment. As synthesis continues, the DNA template loops out, forming a remarkable trombone-like structure. Once the polymerase reaches the previous fragment, it releases the DNA and jumps to a freshly loaded clamp to start again. Flexible tau proteins connect both polymerases and the helicase to the clamp loader, coordinating the entire machine into one synchronized molecular factory. Together, they can copy roughly a thousand DNA letters every second. And accuracy is just as remarkable as speed. A proofreading subunit catches many incorrectly paired letters and removes them before they become permanent mistakes. Finally, the RNA primers are removed and replaced with DNA, and DNA ligase seals the remaining gaps, joining all the fragments into one continuous strand. Two complete DNA molecules, copied from one, ready for the next generation.

iJEP Studio

91,400 görüntüleme • 7 gün önce

Chemistry writes the story of life. Every cell, every second, it tells it again - powered by molecular design. At the core of this process lies the citric acid cycle, the central hub of metabolism. Here, acetyl-CoA derived from carbohydrates, fats, or proteins enters a precise series of reactions that convert fuel into energy. Each step transfers electrons, drives ATP synthesis, and sustains the continuous renewal of life at the cellular level. What may seem invisible is, in fact, the most constant motion in existence; the quiet rhythm of biochemistry that powers everything we do.
0:40

Chemistry writes the story of life. Every cell, every second, it tells it again - powered by molecular design. At the core of this process lies the citric acid cycle, the central hub of metabolism. Here, acetyl-CoA derived from carbohydrates, fats, or proteins enters a precise series of reactions that convert fuel into energy. Each step transfers electrons, drives ATP synthesis, and sustains the continuous renewal of life at the cellular level. What may seem invisible is, in fact, the most constant motion in existence; the quiet rhythm of biochemistry that powers everything we do.

William A. Wallace, Ph.D.

69,180 görüntüleme • 1 yıl önce