Welcome to the Official Bananas in Pyjamas Channel.
On this channel you will find classic and animated full episodes.

Fishy Business - A mysterious fish is spotted by the beach and the Bananas vow to catch it. Their bait proves to be very effective, but the fish turns out to be huge!

Bananas to the Rescue - The Bananas like the idea of being Rescue Bananas and search for more rescues to do. But pretty soon, it's the Bananas themselves who need rescuing.

Morgan's Smelly Sneakers - Morgan's trainers really pong. When Amy and Lulu complain, he moves in with the Bananas rather than get rid of them. Can B1 and B2 find a way to reunite the Teddies?

Jobs Galore - The Bananas are unhappy that Amy can't come out to play because she has so many jobs to do. But when they try to help her, they end up making a bigger mess and creating even more jobs for her. The other Teddies think that if they all pitch in and work together, they can get the jobs done faster and everyone will have time to play. Can they make it work?

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Bananas in Pyjamas Theme Song : https://youtu.be/6hPsXh5k0d8

Your favourite clips and compilations and much more! Tune in every week and see the antics of B1, B2 and their many friends.

Official Bananas in Pyjamas the animated series is now on YouTube.

Since first airing in July 1992 as suited characters, Bananas in Pyjamas has been a phenomenal success not only in Australia but in more than 235 countries and continues to be loved by preschoolers around the world.

Now they are back with new stories, new laughs and new songs that will delight audiences everywhere as B1 and B2, their adorable friends the Teddies and the ever mischievous Rat in a Hat, romp their way through the magical world of Cuddlestown.

There are some new friends to meet too: Topsy the cheeky kangaroo, Charlie the inventive monkey and Bernard, the wise old dog. Join B1 and B2 along with their friends. There's lots of fun and adventures to be had.


Charlie and Lola

Charlie and Lola is a multi award winning cut out photomontage celaction 2D animation series aimed at a pre-school audience. It is adapted from the award winning children’s books written and illustrated by Lauren Child.

In each episode Charlie and Lola deal with issues that they as young children, encounter everyday. These little issues spiral into a succession of imaginative games, role plays and flights of fancy, normally invented by Charlie to coax his spirited little sister Lola round to seeing things in a more reasoned way.

The bananas are noted for their common catchphrase, often said when the duo get an idea where they bump into each other and say: "Are you thinking what I'm thinking, B1?" "I think I am, B2! It's {Bananas' ideas} time!". Rat in a Hat also has three catchphrases, "Oh, cheese and whiskers!", usually stated when he has not succeeded at a task; "Trust me, I'm a rat!" when trying to deceive other characters; and "I'm a rat, I'm a rat, I'm a clever clever rat", which he sings when he thinks of a good idea. Given the age of the target audience, chasing teddy bears is not usually a plot line for the show itself, and when it is depicted, it is usually in a playful manner. More often, the bananas engage in activities in singing, dancing, and playing with the other characters, and bantering with each other.


© Australian Broadcasting Corporation, licensed in association with Southern Star Entertainment 2014
Original song by Carey Blyton

Dr. Don Lincoln introduces one of the most fascinating inhabitants of the subatomic realm: the neutrino. Neutrinos are ghosts of the microworld, almost not interacting at all. In this video, he describes some of their properties and how they were discovered. Studies of neutrinos are expected to be performed at many laboratories across the world and to form one of the cornerstones of the Fermilab research program for the next decade or more.

Einstein’s theory of special relativity is one of the most counterintuitive ideas in physics, for instance, moving clocks record time differently than stationary ones. Central to all of the equations of relativity is the Lorentz factor, also known as gamma. In this video, Fermilab’s Dr. Don Lincoln not only shows you a simple way to derive gamma, he also tells you its physical significance.

Related videos:
www.youtube.com/watch?v=Txv7V_nY2eg

Fermilab's Dr. Don Lincoln explains some of the reasons that physicists are so interested in supersymmetry. Supersymmetry can explain the low mass of the Higgs boson, provide a source of dark matter, and make it more likely that the known subatomic forces are really different facets of a single, common, force.

Related video:
www.youtube.com/watch?v=09VbAe9JZ8Y

Scientists were shocked in 1998 when the expansion of the universe wasn't slowing down as expected by our best understanding of gravity at the time; the expansion was speeding up!  That observation is just mind blowing, and yet it is true.  In order to explain the data, physicists had to resurrect an abandoned idea of Einstein's now called dark energy. In this video, Fermilab's Dr. Don Lincoln tells us a little about the observations that led to the hypothesis of dark energy and what is the status of current research on the subject.

Related video:
http://www.youtube.com/watch?v=oPNrcKeqbBM

One of the most counterintuitive facts of our universe is that you can’t go faster than the speed of light. From this single observation arise all of the mind-bending behaviors of special relativity. But why is this so? In this in-depth video, Fermilab’s Dr. Don Lincoln explains the real reason that you can’t go faster than the speed of light. It will blow your mind.

There are many mysteries of physics for which you can find explanations online and some of those explanations are wrong. In this video, Fermilab’s Dr. Don Lincoln takes on the mystery of why light travels slower in water and glass. He lists a few wrong explanations and then shows you the real reason this happens.

At any time in history, a few scientific measurements disagreed with the best theoretical predictions of the time. Currently, one such discrepancy involves the measurement of the strength of the magnetic field of a subatomic particle called a muon. In this video, Fermilab’s Dr. Don Lincoln explains this mystery and sketches ongoing efforts to determine if this disagreement signifies a discovery. If it does, this measurement will mean that we will have to rewrite the textbooks.

Related videos:
http://www.youtube.com/watch?v=hHTWBc14-mk
http://www.youtube.com/watch?v=I7OdEfGOX7k

Probably the most familiar subject in physics is mass. Basically, it’s the amount of stuff something is made of. However, if you look at it a little more closely, you’ll find that the situation isn’t necessarily so simple. In this video, Fermilab’s Dr. Don Lincoln spends some time explaining how, conceptually speaking at least, there are two kinds of mass: gravitational and inertial and how the relationship between the two has huge consequences on our understanding of the universe.

Scientific research isn’t always simple; in fact, it’s often like rummaging around an unfamiliar room in the dark while wearing a blindfold. Under such conditions, it is inevitable that we have to make guesses about what we encounter. Sometimes those guesses turn out to be right and sometimes they don’t.

This kind of exploratory research is especially true at the very frontier of human understanding and a recent announcement at the LHC about a new form of matter called pentaquarks exemplifies this sort of investigation. The history of the search for pentaquarks involves previous observations that eventually faded under the light of more study. So what’s the deal with this recent announcement? Fermilab’s Dr. Don Lincoln tells us of the history of this interesting possible particle and gives us an idea of what we can expect in the near future.

The subatomic world is governed by three known forces, each with vastly different energy.  In this video, Fermilab’s Dr. Don Lincoln takes on the weak nuclear force and shows why it is so much weaker than the other known forces.

Related videos:
https://www.youtube.com/watch?v=hk1cOffTgdk

Albert Einstein said that what he wanted to know was “God’s thoughts,” which is a metaphor for the ultimate and most basic rules of the universe.  Once known, all other phenomena would then be a consequence of these simple rules.  While modern science is far from that goal, we have some thoughts on how this inquiry might unfold.  In this video, Fermilab’s Dr. Don Lincoln tells what we know about GUTs (grand unified theories) and TOEs (theories of everything).

Einstein’s theory of special relativity is one of the fascinating scientific advances of the 20th century. Fermilab’s Dr. Don Lincoln has decided to make a series of videos describing this amazing idea. In this video, he lays out what relativity is all about… what is the entire point. And it’s not what you think. It’s not about clocks moving slower and objects shrinking. It’s about… well, you’ll have to watch to see.

Related videos:
https://www.youtube.com/watch?v=qXxtqK7G4Uw

The idea of time crystals burst across the media, with ludicrous hopes of time travel and ridiculous rumors of time portals at big international labs around the world. The reality of time crystals is a fascinating scientific advance, but doesn’t rise to the level of the hype. Fermilab’s Dr. Don Lincoln explains the truth.

This 4-minute animation shows how the international Deep Underground Neutrino Experiment will help scientists understand how the universe works. DUNE will use a huge particle detector a mile underground to embark on a mission with three major science goals: 1.) Study an intense, 1,300-kilometer-long neutrino beam to discover what happened after the big bang: Are neutrinos the reason the universe is made of matter? 2.) Use 70,000 tons of liquid argon to look for proton decay and move closer to realizing Einstein’s dream of a unified theory of matter and energy. 3.) Catch neutrinos from a supernova to watch the formation of neutron stars and black holes in real time. About 1,000 scientists from 160 institutions in 30 countries are working on the Deep Underground Neutrino Experiment, hosted at the Department of Energy’s Fermi National Accelerator Laboratory and South Dakota’s Sanford Underground Research Facility. DUNE collaborators come from institutions in Armenia, Brazil, Bulgaria, Canada, Chile, China, Colombia, Czech Republic, Finland, France, Greece, India, Iran, Italy, Japan, Madagascar, Mexico, Netherlands, Peru, Poland, Romania, Russia, South Korea, Spain, Sweden, Switzerland, Turkey, Ukraine, United Kingdom, and the United States of America.

In the world of high energy physics there are several parameters that are important when one constructs a particle accelerator. Two crucial ones are the energy of the beam and the luminosity, which is another word for the number of particles in the beam. In this video, Fermilab’s Dr. Don Lincoln explains the differences and the pros and cons. He even works in an unexpected sporting event.

Anyone who has driven a car has an intuitive understanding of how velocities add. Two cars, heading towards one another head-on at a velocity, have a closing velocity of twice that velocity. It’s all very simple and yet at very high speeds this intuition is just wrong.

In this video, Fermilab’s Dr. Don Lincoln explains how to add velocities in a relativistic environment. It’s weird and wonderful and mind-bending.

Related videos:
https://www.youtube.com/watch?v=CB1QFUCga0I

The Muon g-2 experiment at Fermilab will use as its primary instrument a 52-foot-wide electromagnet that creates a precise magnetic field. In this video, Fermilab's Brendan Kiburg explains the lengthy process of finely "shimming" that magnetic field into shape. Learn more about the Muon g-2 experiment at http://muon-g-2.fnal.gov. Learn more about Fermilab at http://www.fnal.gov. Learn more about the experiment preparations at http://www.symmetrymagazine.or....g/article/preparing-

The use of superconducting radio frequency (SRF) technology is a driving force in the development of particle accelerators. Scientists from around the globe are working together to develop the newest materials and techniques to improve the quality and efficiency of the SRF cavities that are essential for this technology.

For further information on superconducting radio frequency technology, please visit:
Fermilab (http://www.fnal.gov)
Argonne National Laboratory (http://www.anl.gov)
Berkeley National Laboratory (http://www.lbl.gov)
Brookhaven National Laboratory (http://www.bnl.gov)
Jefferson National Laboratory (http://www.jlab.org)
Oak Ridge National Laboratory (http://www.ornl.gov)
CERN (http://www.cern.ch)
DESY (http://www.desy.de)
KEK (http://www.kek.jp)
music by http://www.bensound.com