National Geographic Japan shared this amazing time-lapse video of a bee being born. I love when science videos get over 1,653,803 views on YouTube 🙂 Click here for more information about a bee’s life cycle!
Over the course of 21 days, you can watch this bee egg hatch into a larva – the larva swims in its cell, feeding on liquid food from the queen bee – the legs and head evolve as it develops into a pupa – the tissue reorganizes in its body and the eyes form – then, the skin shrivels and it sprouts hair. BOOM. Bee time.
This video is the work of biologist turned photographer, Anand Varma.
There is a reason this video of a chameleon hatching – posted in 2008 – has over 1,715,098 views. I could do without the epic music, but overall this video is absolutely captivating; it starts changing colors within minutes. You can watch its tiny two-toed zygodactylous feet and independently mobile eyes experience the world for the first time. Click below to watch the incredible footage!
Most chameleon species lay eggs (oviparous), while a few give birth to live young (ovoviviparous).
The oviparous species lay eggs three to six weeks after mating takes place. The female will dig a hole in the ground and deposit her eggs, covering them with dirt, keeping them warm and safe. The mom then leaves the eggs to hatch and fend for themselves – which can take anywhere from 4-12 months, even longer for some species. Chameleon babies are independent at birth and must find their own food and shelter.
A batch of chameleon eggs is referred to as a ‘clutch.’ Clutch sizes vary greatly depending on the species. Click here to view an African Flapneck chameleon burrow her eggs and wait for the babies to hatch and catch their first snack!
The ovoviviparous species, like Jackson’s chameleons, have a five to seven-month gestation period. Each young chameleon is born within the sticky transparent membrane of its yolk sac. Once the membrane bursts, newly hatched chameleon babies free themselves and climb away for their first feeding.
I have to admit, I’m a bit terrified of deep sea creatures. I mean, 95% of the ocean floor remains unexplored. That is A LOT of room for giant squid to roam. Lucky for me, NOAA decided to explore the waters off of Puerto Rico in search of the deep sea life that haunts my dreams.
From April 9 to April 30, 2015, NOAA Ship Okeanos Explorer explored largely uncharted deep-sea ecosystems and seafloor in the vicinity of Puerto Rico and the U.S. Virgin Islands. What they found – using state of the art technology – will amaze you!
Quartz posted this incredible video to their Facebook page, using footage gathered from NOAA. Some of these creatures are so new – they don’t even have names.
Océano Profundo 2015
Legs 1 and 2 of the mission focused on mapping the seafloor where primarily only low-resolution satellite or topographic data existed previously. Leg 3 of the expedition featured some of the deepest remotely operated vehicle (ROV) dives ever conducted in the region and collected critical deep-water environmental data that will improve ecosystem understanding and inform federal and local resource managers.
Why Puerto Rico?
According to NOAA, a diversity of seafloor features lie just offshore Puerto Rico and the U.S. Virgin Islands that include trenches, seamounts, numerous submarine canyons, valleys, and troughs. These features likely contain valuable and vulnerable ocean resources, but very little is known about them, making this an important area to survey.
It is crucial to explore this area for several reasons:
It is tectonically active, with seismic hazards
It includes a large section of U.S. Exclusive Economic Zone
One of the major fisheries in the area is deepwater snapper, but little is known about snapper populations there
It is of potential interest for marine protected area managers, those creating ocean usage planning maps, and sanctuary managers
NOAA did a fantastic job of documenting their journey, allowing scientists and the public access to mission logs, daily reports, photos, video, and live underwater video feeds.
During the dives, Okeanos Explorer’s two-body ROV system continuously captured high-definition video, which the ship transmitted to the Office of Ocean Exploration and Research’s website, www.oceanexplorer.noaa.gov, where anyone could follow along in near-real time!
NOAA Ship Okeanos Explorer, “America’s Ship for Ocean Exploration,” is the only federally funded U.S. ship assigned to systematically explore our largely unknown ocean for the purpose of discovery and the advancement of knowledge. Telepresence, using real-time broadband satellite communications, connects the ship and its discoveries live with audiences ashore. Visit the NOAA Marine Operations Center Okeanos Explorer page for operations and crew information 🙂
“Bonk” author Mary Roach delves into obscure scientific research, some of it centuries old, to make 10 surprising claims about sexual climax, ranging from the bizarre to the hilarious. (This talk is aimed at adults. Viewer discretion advised.)
It has been viewed on TED.com over 15,438,578 times. Mary Roach’s lecture on orgasm is both engaging, humorous, and smart . I learned more than I ever wanted to know about orgasm. You can conceivably, if the conditions are right, give a dead person an orgasm. A DEAD PERSON. Orgasm might cure your hiccups. Oh, and you’ll see a video involving a female pig you wish you could un-see. I highly suggest you take 16 minutes out of your day to watch the whole talk.
Click here for the full transcript and more information about Mary Roach. I’ve typed out the full list below, but trust me, there is much more interesting information in the video!
Ten Things You Didn’t Know About Orgasm
#1 – A fetus can masturbate in utero.
#2 – You don’t need genitals.
#3 – You can have them when you’re dead.
#4 – They can cause bad breath.
#5 – They can cure hiccups.
#6 – Doctors once prescribed them for fertility.
#7 – Pig farmers still do.
#8 – Female animals are having more fun than you think.
#9 – Studying human orgasm in a lab is not easy.
#10 – But it sure is entertaining.
Kinsey conducted, for lack of a better term, jerk-off in which he lined men up next to each other and had them ejaculate in order to study how far semen can shoot.
Her name is Rambo, she lives in New Zealand, she takes pictures, and, oh yeah… she is an octopus! In a new viral video released by Sony, you can see Rambo in action, snapping pics of excited guests in exchange for treats – using Sony’s underwater Cyber Shot TX30 camera.
Rambo, who was given the name based on the amount of destruction she caused the first few camera set-ups, lives at the Kelly Tarlton’s Sea Life Aquarium in Auckland. Rambo may be the world’s first professional ‘octographer,’ given the fact each photo costs $1.50 a pop!
The truth is, octopuses are highly intelligent. They open jars, make daring escapes from their tanks, and even dismantle high tech equipment! Click here to watch an octopus break apart a camera.
Mark Vette, Rambo’s trainer, told Cult of Mac, “When we first tried to get her to take a photo, it only took three attempts for her to understand the process. That’s faster than a dog… Actually, it’s faster than a human in some instances.”
Octopuses learn quickly and are highly motivated by food. Rambo was first taught to respond to a buzzer – which meant snack time. Then Vette had to teach her the buzzer meant to take a picture, which resulted in food.
Vette told NPR the hard part wasn’t training Rambo to shoot pictures; the hard part was creating an underwater set-up for the tank that the curious cephalopod wouldn’t destroy.
He told NPR, “She took the camera, ripped it off its hinges, ripped it off everything, smashed it to bits and spat it out.” Hence the name Rambo 🙂
Screenshot: Krystian Science
How Does the Octopus Seamlessly Co-ordinate Its Eight Arms?
Good thing octopuses don’t dance, because according to a new study, they have no rhythm.
Scientists found that the octopus moves by shortening and elongating its arms, which creates a pushing thrust. The animal does not move by bending or pulling its arms, as previously thought.
Octopuses have bilateral body symmetry, which means their left side is a mirror image of their right. Most bilateral-symmetric animals face forward when they are moving (except the crab, which walks sideways.) But, octopuses can move in ANY direction without needing to turn their bodies. They just push off a surface and propel themselves wherever they’d like.
“So the octopus only has to decide which arm to use for the pushing – it doesn’t need to decide which direction this arm will push,” explained Dr Levy. “[It has] found a very simple solution to a potentially complicated problem – it just has to pick which arm to recruit.”
While, the octopus clearly has some rad moves, researchers have not been able to spot a pattern, or rhythm to their movement. Levy believes there either is no pattern to discover, or their movement is too complicated for the studies they conducted.
The findings are published in the journal Current Biology.
Festo has unveiled a slew of new animal-inspired robotic creatures you need to see to believe.
I’d like to introduce you to Festo’s BionicANTs, eMotionButterflies, and FlexShapeGripper!
BionicANTs – ‘Highly integrated individual systems to solve a common task’
The BionicANTs not only mimic the delicate anatomy of ants, but also their cooperative behavior. BionicANTs actually work together, under a clear set of rules, to coordinate their actions and movements. They even know when to branch off and use their ‘antennae’ to re-charge at the edge of their work space.
By pushing and pulling together, the ants are able to move an object across a defined area. This way, they are able to move loads that a single ant could not move alone. This technology seems playful, but it could greatly impact factories and production lines in the future.
Why ants? Ants are tough industrious workers that can carry a hundred times their own body weight. They live in big colonies with clear rankings and set rules. Ants know which tasks they need to fulfill, and they can work together to complete them.
eMotionButterflies – ‘Ultralight flying objects with collective behavior’
These might be the most beautiful robots I’ve ever seen! You have to admit they look real. Except for the large ‘Festo’ logo printed on their wings 🙂
These artificial butterflies feature highly integrated on-board electronics, allowing them to activate their wings individually with precision. No human pilot is required to control the eMotionButterflies. Thanks to indoor GPS and a complicated camera system, the bionic insects know where to fly and how to avoid collisions.
The wings are curved out of wafer-thin carbon rods and covered with an elastic capacitor film, which helps keep the eMotionButterfly’s weight as low as possible and its flight as natural as possible.
Why butterflies? Butterflies begin the world as caterpillars and later emerge as colorful flying creatures. They have large wings and slim bodies, making them light and aerodynamic.
FlexShapeGripper – ‘Gripping modelled on a chameleon’s tongue’
Gripping applications have always played a key role in production, which explains Festo’s interest in the chameleon’s highly specialized tongue. The chameleon has the ability to shoot its tongue out light a rubber band and wrap around objects like a suction cup.
The FlexShapeGripper’s water-filled silicone cap allows it to wrap itself around various items in a flexible and form-fitting manner, much like a chameleon!
Why a chameleon? Chameleons can more their eyes independently of each other and change the color of their skin depending on their mood and temperature. Their unique tongues help them attack and retract prey as quick as lightening
All three of these ‘biomimetic’ devices will be on display at the industry trade show Hannover Messe in April.