Paramagnetism of Oxygen

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  • เผยแพร่เมื่อ 21 ก.ย. 2024
  • Oxygen gas is condensed into liquid form and then poured between the poles of a strong magnet so we can observe its paramagnetic properties.
    We send O2 gas through a copper coil, which is then immersed in about 2 liters of liquid nitrogen (77 Kelvin, or minus 196 degrees Celsius). As the O2 travels through the coil it loses enough heat to change from a gas to a liquid, and that liquid is collected in a small pre-cooled Dewar. Liquid nitrogen is poured between the poles of the permanent magnet, but since its diamagnetic properties lead to only a very weak interaction with the field, it just sloshes through as if it were water. The liquid oxygen, on the other hand, sticks between the poles of the magnet until it boils away.
    Because the oxygen molecule has an electronic structure that favors the non-cancellation of two of the electron spins, its net magnetic moment is free to point in the direction of an external magnetic field (just as a compass needle does). When enough of these moments are aligned, the material as a whole behaves like a single magnet. At room temperature only a small fraction of the moments are able to line up perfectly with the external field, but when oxygen is cooled and condensed into a liquid the effect is more noticeable.
    For more details on our setup see:
    sciencedemonstr...
    Like us on Facebook! / natscidemos

ความคิดเห็น • 293

  • @abdulmajeed-jb8fg
    @abdulmajeed-jb8fg 3 ปีที่แล้ว +29

    Who came here just after studying molecular orbital theory?

  • @brainiac75
    @brainiac75 12 ปีที่แล้ว +44

    Nice magnet and nice video. The color of oxygen is just such a beautiful blue color...

  • @NickRoman
    @NickRoman 8 ปีที่แล้ว +61

    I also liked seeing that liquid oxygen is blue.

  • @sheesulhassan
    @sheesulhassan 4 ปีที่แล้ว +48

    Thank you for this cool demo... I was studying Molecular Orbital theory for my tomorrow's lecture and found this video... Gonna show this video to my students
    thanks again

    • @joeguy6351
      @joeguy6351 4 ปีที่แล้ว +1

      If you don't mind, would you explain a little of it to me, or point me in a good directions.

    • @ayushrajpoot2215
      @ayushrajpoot2215 4 ปีที่แล้ว +1

      same here but i am student studying for myself

    • @DeepakKumar-gd1wg
      @DeepakKumar-gd1wg 3 ปีที่แล้ว +9

      @@joeguy6351 i don't know how much you know about this stuff so i am just going to explain in layman terms. You know that electrons spin around atoms, right? Since electrons have charge, when they spin around the atom, they create "magnetic moment" whose direction is perpendicular to the plane in which the electron is revolving. For example, if you say that the electron is spinning on your bed, then the magnetic moment will be created in the direction perpendicular to it. Now you can think of this magnetic moment like a stick. Suppose you hold a stick to some angle to which a wind is blowing. The stick aligns itself with the direction of the wind, right? Now you can think of the magnetic field between the two magnets as a wind blowing from north to south pole. Now what you will study in quantum mechanics is that the electrons have a principal quantum number called "spin" which can be either +1/2 or -1/2(this spin actually has no physical meaning. It is just a mathematical model). If an electron ha s spin +1/2 and another electron has spin -1/2 then their magnetic moments cancel out or you can say their is no stick which you can hold in the wind. But if two electrons have same spin (+1/2 or -1/2, doesn't matter) then their magnetic moments or "sticks" add up. Now what happens in o2(according to molecular orbital theory) is that all except 2 of the electrons pair up i.e. since you have 16 electrons in o2 then 7 electrons have +1/2 spin and 7 others have -1/2 spin so their magnetic moments cancel out. But the other 2 electrons have spin of same sign (+1/2 or -1/2) so their magnetic moments add up. Now when you are pouring liquid oxygen onto the magnet the magnetic moment or stick is reacting to the magnetic field(or wind). However with nitrogen gas(n2), it has 14 electrons which when arranged in the molecular orbitals give a net spin of 0 so you don't see any reaction.

    • @SSHAKTHEESIVAKUMAR
      @SSHAKTHEESIVAKUMAR 2 ปีที่แล้ว

      @@DeepakKumar-gd1wg Thanks a lot for the explanation!

    • @acluster3411
      @acluster3411 ปีที่แล้ว

      @@DeepakKumar-gd1wg Great explanation, well done.

  • @backyardsounds
    @backyardsounds 8 ปีที่แล้ว +70

    That magnet has seen some stuff.

    • @NatSciDemos
      @NatSciDemos  8 ปีที่แล้ว +25

      Yes, we've been using it for many years.

    • @johmcg64
      @johmcg64 5 ปีที่แล้ว +1

      No it has not!

  • @namir0430
    @namir0430 7 ปีที่แล้ว +8

    great video... it is one of my favorite demos. Note, If you used a white background you could really show off the pretty blue color of liquid oxygen.

  • @Petrov3434
    @Petrov3434 ปีที่แล้ว +1

    BRAVO !!!'
    • Molecular oxygen in the ground state is a bi-radical, containing two unpaired electrons in the outer shell (also known as a triplet state).
    • Since the two single electrons have the same spin, oxygen can only react with one electron at a time and therefore it is not very reactive with the two electrons in a chemical bond
    All organic compounds, including those that compose our body tissues, should react rapidly with air to form H2O, CO2, and N2 in an exothermic reaction.
    Fortunately for us, however, this reaction is very, very slow.
    • The reason for the unexpected stability of organic compounds in an oxygen atmosphere is that virtually all organic compounds, as well as H2O, CO2, and N2, have only paired electrons,
    • whereas oxygen has two unpaired electrons.
    Thus the reaction of O2 with organic compounds to give H2O, CO2, and N2 would require that at least one of the electrons on O2 change its spin during the reaction. This would require a large input of energy, an obstacle that chemists call a spin barrier.
    Without the quantum rules that govern the predominantly two-electron chemistry of carbon, versus the one-electron behavior of oxygen, the world that we know and love could NOT exist.

  • @grandexandi
    @grandexandi 10 ปีที่แล้ว +35

    I love these videos, but it frustrates me that they don't include any explanations at all for us who don't know anything about what's going on...

    • @AndyU96
      @AndyU96 7 ปีที่แล้ว +1

      Why does having unpaired electrons make something attracted to magnetic fields?

    • @siyabongankosi9956
      @siyabongankosi9956 7 ปีที่แล้ว +4

      lol just enjoy the video,it wont be worth it to explain MO theory if you dont do chemistry anyway

    • @pompommoon3069
      @pompommoon3069 6 ปีที่แล้ว

      Ameerhun1996 is it because it’s unbalanced?

    • @heysiri4935
      @heysiri4935 5 ปีที่แล้ว +1

      th-cam.com/video/pB-qAwkgfFQ/w-d-xo.html

  • @NatSciDemos
    @NatSciDemos  12 ปีที่แล้ว +2

    @FTSinclair yes the induced magnetic moment is inversely proportional to the temperature.

  • @aravindaakash6412
    @aravindaakash6412 3 ปีที่แล้ว +2

    Watching with earphones, so satisfying

  • @M4hB
    @M4hB 12 ปีที่แล้ว

    I love how Echoes Live at Pompei is in the related videos. I highly suggest anyone who hasn't seen it to watch it now.

  • @antaress8128
    @antaress8128 10 ปีที่แล้ว +5

    I love this experiment. I'm so glad I found this channel. I watched all the uploaded videos for 1 afternoon. I studied in low budget university and we had only few experiments. Thank you so much for making these videos. This Universe never stops to amaze me.
    And btw why the oxygen is blue in its liquid form?

    • @taoorus
      @taoorus 10 ปีที่แล้ว

      maybe cause of the copper?

    • @anastasiagreem6989
      @anastasiagreem6989 10 ปีที่แล้ว +6

      The transition responsible for the pale blue color of liquid oxygen compare to clear gaseous form is the simultaneous excitation of two molecules from triplet sigma to singlet delta. The double excitation avoids the spin forbiddeness. The energy for the transition corresponds to a wavlenght of 650 nm. Absorbing in the red means the liquid oxygen looks blue. This is only possible in the high density of the liquid so air doesn/t have this absorption with any intensity :)

    • @antaress8128
      @antaress8128 10 ปีที่แล้ว

      Anastasia Greem Thank you for your detailed reply! You are beautiful and smart.

    • @anastasiagreem6989
      @anastasiagreem6989 10 ปีที่แล้ว

      Ристу Георгиев Spasibo za compliment :)

  • @waseebderang894
    @waseebderang894 3 ปีที่แล้ว +2

    This is also done because Molecular orbital leaves two unpaired electrons in each of π• orbitals Hence, electronic configuration of molecular orbital accounts admirably for paramagnetic properties

  • @NatSciDemos
    @NatSciDemos  12 ปีที่แล้ว +1

    @TehCthulhu combustion requires fuel, oxygen, and ignition, so by itself the liquid oxygen isn't flammable. on the other hand, because the oxygen is highly concentrated in liquid form, it will make any combustion happen more quickly (and violently).

  • @Indian-from-India
    @Indian-from-India 9 ปีที่แล้ว +2

    Well done. Thanks for uploading.
    Beautiful & powerful magnet.

  • @NatSciDemos
    @NatSciDemos  12 ปีที่แล้ว +1

    @howard999999999 the LN2 is 77 Kelvin. the "--" in the description is meant as an em-dash not a minus symbol.

  • @proggR
    @proggR หลายเดือนก่อน

    The last scene really helped me see the 2D physics, thrown against a 3D space, vs a 4D model of time that I tbh believe relies on a 5+D model of perceptual/interactable time to make any sense. Each magnetic pole even in 2D creates the field that then interacts which each dimension above. Though forever I find myself asking... what would the 1D/monopole model look like? And could we ever surmise an experiment like this that so clearly presents it? Or at least a way to visualize it in a way that then helps underwrite broader physics?
    Unanswered questions aside, thanks for this vid. Its great :)

  • @anubhavidk
    @anubhavidk 3 ปีที่แล้ว +5

    Who is here from A2 sir?(Arvind Arora)

  • @SmittenKitten96
    @SmittenKitten96 5 ปีที่แล้ว +1

    Saw a picture in my textbook and had to look it up. Really cool 🤙

  • @redmetalicrobotdemon6409
    @redmetalicrobotdemon6409 6 ปีที่แล้ว +1

    I read a thing about magnetitism of Carbon Nano Tubes having a current capacity of 5,000 times of regular electro magnets. I wonder if 5,000 times current and torsion capacity can move air for a flying car of some sort.

  • @babuugamer2681
    @babuugamer2681 3 ปีที่แล้ว +3

    Wow. It's amazing 😍😘😍

  • @TheEmerhh
    @TheEmerhh 12 ปีที่แล้ว

    I had been listening to some radio station and they played dubstep while I was watching this video. It sounds awesome!

  • @johmcg64
    @johmcg64 5 ปีที่แล้ว +2

    The liquid nitrogen cooled the oxygen gas below its boiling point creating the liquid oxygen, so cool. That liquid nitrogen has a termperature of -320.4 degrees F. The liquid oxygen has a boiling point of -297.3 degrees F so it is liquid at -297.4 and degrees and lower. This is how the oxygen gas became a liquid. Very cool! Thank you.

  • @raphaelfarias8184
    @raphaelfarias8184 11 ปีที่แล้ว

    Alignment of the angular magnetic moment of oxygen. Many people think that only the magnet has magnetic properties.xD Very Nice. :D
    Brazilians Greetings

  • @Rayfer02
    @Rayfer02 7 ปีที่แล้ว +1

    How amazing explanation. Very instructive. Helpfull for my job. Thanks you Very much.

  • @NatSciDemos
    @NatSciDemos  12 ปีที่แล้ว

    @treegraph thanks for pointing that out. better to just say that the LN2 is diamagnetic...

  • @Dr.Ashmita
    @Dr.Ashmita 3 ปีที่แล้ว +2

    That pale blue color of Oxygen ❤️

  • @KishoreChandraMishra
    @KishoreChandraMishra 10 ปีที่แล้ว +4

    It is very good demonstration

  • @LetoZeth
    @LetoZeth 5 ปีที่แล้ว +2

    Such an interesting video, at so many levels.

  • @hirmizzz
    @hirmizzz 8 ปีที่แล้ว +2

    Great experiment Harvard
    Thank you

  • @elmonoreptiliano9878
    @elmonoreptiliano9878 10 ปีที่แล้ว +1

    why don't you light a match on the oxigen?

  • @lynth
    @lynth 12 ปีที่แล้ว +3

    I love the key chain throw at the end.

  • @bethlast4269
    @bethlast4269 6 ปีที่แล้ว +4

    Very cool experiment. I wish I could show it to my students, but I can only show them experiments in which the experimenter is using reasonable precautions, such as eye protection.

  • @muditbiswas
    @muditbiswas 3 ปีที่แล้ว +2

    Daaamn Daniel

  • @TrevorRGHolt
    @TrevorRGHolt 4 ปีที่แล้ว +2

    Could a strong enough magnet condense the oxygen to a visible gas without cooling. Or at least bring the partial pressure of oxygen in the atmosphere higher than normal?

  • @宝宝-n8q
    @宝宝-n8q 5 ปีที่แล้ว +2

    Such a amazing video, thanks a lot!

  • @iexusuxei
    @iexusuxei 12 ปีที่แล้ว

    @bleachzeldakid To simplify, there are 3 states of matter; solid, liquid, and gas. Oxygen at room temperature is obviously a gas as you breath it to live however it can be cooled to become a liquid, cooled further it would become solid. Try thinking of water if you're really struggling with the basic principles. Water can be frozen (solid) or boiled into steam (gas). Water is hydrogen and oxygen bonded (H20).

  • @waynesanders1406
    @waynesanders1406 6 ปีที่แล้ว

    I have no idea what I just learned. But whatever it was... I learned it.

  • @knowledgetogain379
    @knowledgetogain379 ปีที่แล้ว +1

    so satisfying 😯

  • @xavier532
    @xavier532 5 ปีที่แล้ว +1

    paramagnetism attraction in magnetic field is takesplace here

  • @reuphtop9135
    @reuphtop9135 วันที่ผ่านมา

    What are some examples of how to functionally utilize this?

  • @hamiel85
    @hamiel85 12 ปีที่แล้ว

    @Canadiankiid93 No, your hand will be fine for a split second of exposure. This is because LN2's boiling point is extremely low and from it's stand point your hand is extremely hot. That means that for the split second your hand was in the LN2 it is actually boiling on top of your skin and evaporating. A good example of this is to pour water on a hot cooking stove, the water will almost like "dance" on the stoves' surface, then evaporate. But any longer than that and ... well, you know.

  • @thedualmobius
    @thedualmobius 12 ปีที่แล้ว +1

    Just curious. At what temperature does oxygen become a solid? Follow up question. How magnetic is the solid form of oxygen?

  • @BitGridTV
    @BitGridTV 10 ปีที่แล้ว +2

    this reminds me a bit of T1000 freezing in (Terminator 2)
    hahaha

  • @mariaorsic9763
    @mariaorsic9763 3 ปีที่แล้ว +2

    Thank you so much! This is the only way to learn.

  • @funnyvideok1
    @funnyvideok1 ปีที่แล้ว +2

    Cool

  • @Alll2017
    @Alll2017 ปีที่แล้ว

    Important science at a time of ever increasing electro MAGNETIC forces

  • @natashadalton2710
    @natashadalton2710 8 ปีที่แล้ว +1

    I will show this to my students because they don't believe or understand how or why liquid oxygen exists.

  • @ferescalante182
    @ferescalante182 9 หลายเดือนก่อน +1

    This is crazy

  • @ecmswagger
    @ecmswagger 3 ปีที่แล้ว

    This makes me think of a water bridge phenomenon which forms in the presence of high voltage.

  • @forevergogo
    @forevergogo 12 ปีที่แล้ว

    Next we pass an I-phone through the magnet- aww drat.
    APPLE, YOUR PHONE BROKE, I DON'T KNOW HOW. SCIENCE DID IT.

  • @fano72
    @fano72 5 ปีที่แล้ว

    So cool i have seen the magnetic field!

  • @XcrazytrainletlooseX
    @XcrazytrainletlooseX 11 ปีที่แล้ว

    It is also blue. If you're asking about the shape, it takes the shape of whatever it was solidified in.
    Source: watch?v=KACP8eH_GTU

  • @eldeivip
    @eldeivip 12 ปีที่แล้ว

    Man I love your vids

  • @h7opolo
    @h7opolo ปีที่แล้ว +1

    amazing

  • @DonaldSleightholme
    @DonaldSleightholme 2 ปีที่แล้ว

    I’ve thought of an experiment, bubble oxygen through some water and try to attract the bubble with a magnet 🧲🤔🤷‍♂️

  • @nihadeyvazov9162
    @nihadeyvazov9162 3 ปีที่แล้ว +1

    Thank You for this video

  • @Bettertobeawarriorinagardin
    @Bettertobeawarriorinagardin 3 ปีที่แล้ว +1

    Studying for MCAT led me to this

  • @infobiodiversity
    @infobiodiversity ปีที่แล้ว +1

    That was amazing ❤

  • @damiangradecki5544
    @damiangradecki5544 ปีที่แล้ว +1

    Magic

  • @DanieleGiorgino
    @DanieleGiorgino 12 ปีที่แล้ว

    That's pretty cool.

  •  8 ปีที่แล้ว +1

    Amazing!

  • @evergreenappreciator
    @evergreenappreciator 12 ปีที่แล้ว

    @thedualmobius Obviously this is dependent on several factors, but oxygen will become solid at normal atmospheric pressure (1 atm) at temperatures below 54.36 K. To have room-temperature solid oxygen, the pressure required would be something ridiculously high. I'm not sure on the magnetic properties of solid oxygen, but I'd assume it's higher than liquid or gaseous oxygen, as there are more molecules in less space. Check out the Wiki page for more info! Hope that answers your questions!

  • @relentlessmadman
    @relentlessmadman 7 ปีที่แล้ว +1

    this is a really cool experiment! were you ever a hippy?

  • @apostolique1
    @apostolique1 12 ปีที่แล้ว +2

    That's so cool! I'll have to read the description to actually understand what happened, but the effect looks so magical.

  • @EngineerNick
    @EngineerNick 6 ปีที่แล้ว

    such good quality video thanks :)

  • @dominikleitgeb4222
    @dominikleitgeb4222 9 ปีที่แล้ว

    think about this experiment in cold surroundings as in liquid nitrogen. the oxygen would'nt be warming like this and maybe show something...

  • @NickWarnerMedia
    @NickWarnerMedia 12 ปีที่แล้ว

    this is nuts i love it

  • @alejosky
    @alejosky 12 ปีที่แล้ว

    That's a big ass magnet!

  • @forerfunluckres6723
    @forerfunluckres6723 9 ปีที่แล้ว

    interesant test plsease wortex coil on liguid nitrogen what electrons moved and magnetic oation pole making ! Thanks for the answer

  • @ThingEngineer
    @ThingEngineer 10 ปีที่แล้ว

    Cool magnet!

  • @i_am_ruhi86
    @i_am_ruhi86 3 ปีที่แล้ว

    Osm 🤩🤩🤩

  • @jrM5492
    @jrM5492 6 ปีที่แล้ว

    like the last demonstration. dry humor lol

  • @user49917
    @user49917 5 ปีที่แล้ว

    The liquid nitrogen was poured on the magnet to cool it down so that the oxygen wouldn't evaporate on contact preventing us from seeing the effect

  • @vq9453
    @vq9453 7 ปีที่แล้ว

    thanks

  • @GrimKayne
    @GrimKayne 4 ปีที่แล้ว

    Didnt you add liquid nitrogen on before liquid oxygen? Wouldnt that have a chemical mixture meaning liquid oxygen may behave differently without first having added nitrogen

    • @Extractables
      @Extractables 4 ปีที่แล้ว

      The reaction between oxygen and nitrogen only happens at high temperatures, like in a spark, lightning, or an internal combustion engine. At the temperatures of liquid oxygen and liquid nitrogen, there's practically no reaction.
      The liquid nitrogen boils off when it hits the pole pieces, and it cools them down. It's gone by the time we add the liquid oxygen. Often when we do this demo for a class, we repeat the sequence of adding liquid nitrogen to further cool the magnet so we don't have to make as much liquid oxygen.
      Thanks for the question!

  • @TheresAGap
    @TheresAGap 9 ปีที่แล้ว

    This is so cool.

  • @joboring8397
    @joboring8397 3 ปีที่แล้ว

    The vaporization rate of the liquid nitrogen increases at 0:57. Is this because condensation of atmospheric oxygen begins to occur at this point?

  • @imadkali
    @imadkali 6 ปีที่แล้ว

    need some slow motion, but its amazing

  • @saifansari7250
    @saifansari7250 3 ปีที่แล้ว

    Great experiment sir ❤️❤️❤️

  • @Extractables
    @Extractables 11 ปีที่แล้ว

    Not as a liquid.
    If you warm it to breathe the gas, then an insulated tank of liquid oxygen contains a lot more O2 than the same volume of compressed oxygen in a tank at room temperature.
    Still have to get rid of CO2 if you're breathing in an enclosed space.

  • @champ121991
    @champ121991 10 ปีที่แล้ว

    Simply amazing..

  • @NatSciDemos
    @NatSciDemos  12 ปีที่แล้ว +1

    I'm not sure what its name is but we call it "the crusher"

    • @harshvardhanwagare5663
      @harshvardhanwagare5663 3 ปีที่แล้ว

      Thanks for the demonstration My teacher recommended this video

  • @rajkumarsonare9574
    @rajkumarsonare9574 4 ปีที่แล้ว +1

    Wowow 😀

  • @romariowilliams4907
    @romariowilliams4907 6 ปีที่แล้ว

    +Harvard Natural Sciences Lecture Demonstrations So would the behaviour of the LN2 when poured on the magnets demonstrate its diamagnetism?
    Cool experiment by the way!

  • @MartijnDeGussem
    @MartijnDeGussem 11 ปีที่แล้ว

    you would just freeze your self as TheHeew pointed out
    but it is possible to breathe through oxygen-rich liquid such as a perfluorocarbon. It is not 'easy' though so you can't just jump in a pool of the stuf and start breathing.

  • @neodiy
    @neodiy 2 ปีที่แล้ว

    Can you test if gasoline is magnetic / paramagnetic or diamagnetic?

  • @joeguy6351
    @joeguy6351 4 ปีที่แล้ว

    So would moving super cooled, magnetic liquids create a stronger magnetic field.

  • @creepyhousesfamilyvideos8425
    @creepyhousesfamilyvideos8425 10 ปีที่แล้ว

    Ohhhhh my god this is the coolest shit but I wish there was more explanation of what exactly is happening between those poles and why. I presume it's because oxygen tends to be a polar element? But I'm not very good at chemistry so I'm not really sure.

    • @chechoarb3
      @chechoarb3 10 ปีที่แล้ว

      hey there!
      This can be explained by using the molecular orbital theory, in which overlapping of the different atomic orbitals (both s and p) give birth to the oxygen molecule. On the following link you can see how there are two unpaired electrons (arrows going up). Hence, when submitted to a magnetic field, these will pair up with it. Consequently, oxygen will stay "floating" within the magnetic field.
      I really hope this helped! Best regards!
      www.meritnation.com/img/userimages/mn_images/image/5(41).png

  • @JohnDoe-gm5qr
    @JohnDoe-gm5qr 9 ปีที่แล้ว

    I could see the oxygen following the magnetic field and even staying there. Of course room temperature oxygen won't do that. This reminds me of the way metals become superconductors when cooled to such low temperatures. Magnetism is very interesting when experiments with it are done at such low temperatures.

    • @imamok
      @imamok 8 ปีที่แล้ว

      +John Doe Oxygen as a gas is also paramagnetic, but you can't see the effect when it's a gas because of how low the density is. They cool it so there are more molecules close together, and it becomes a liquid in doing this, so that you may observe the effect.

  • @Oniontears123TNG
    @Oniontears123TNG 11 ปีที่แล้ว

    Most smoke machines work by heating glycerine, which releases smoke, much as heating oil releases smoke.

  • @Walkingdeadman1991
    @Walkingdeadman1991 12 ปีที่แล้ว

    Could you breathe in pure oxygen? Why don't people use oxygen to freeze things instead of liquid nitrogen?

  • @shuralmehki
    @shuralmehki 9 ปีที่แล้ว

    What would happen if the magnet were to be supercooled as well prior to pouring the liquid nitrogen and the liquid oxygen?

  • @BigBammer
    @BigBammer 9 ปีที่แล้ว

    First, holy crap. Second, is that rotating between the magnets?

    • @Draalo
      @Draalo 8 ปีที่แล้ว

      +TheBammer78 it shouldnt - but if its rotating i guess its because of minimal different temperatures, causing one side (towards camera) to boil the O2 a bit more than the other....

    • @BigBammer
      @BigBammer 8 ปีที่แล้ว

      oh cool, thanks.

  • @790micah
    @790micah 12 ปีที่แล้ว

    In the begining he totally looked like a mad scientist

  • @jonathanrecer7468
    @jonathanrecer7468 3 ปีที่แล้ว

    Try the conductivity of 4 state of water plz

  • @AnonymityIx
    @AnonymityIx 8 ปีที่แล้ว +2

    Damn Daniel

  • @Murderface666
    @Murderface666 6 ปีที่แล้ว

    Cool, but where can this be of use?

  • @davionbarker1021
    @davionbarker1021 9 ปีที่แล้ว

    What would be a way to increase the rate of liquid oxygen production?

  • @OPDCSV
    @OPDCSV 11 ปีที่แล้ว

    What can this be applied to.I think this is pretty cool!