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We find out more about two more Ig Nobel prizes, for Accoustics and Entomology. Spiders aren't insects, but they're pretty similar. So why do so many entomologists fear spiders? Lots of legs, moves suddenly, weird shape, are fine for entomologists but add 2 extra legs and it's right out. Extra legs are a deal breaker for entomologists with a fear of spiders. Helium, Alligators in a tank, and resonant frequencies won this group a Ig Nobel prize. You've heard of beard song, but what about Alligator on helium song? Alligators and Birds can help us understand the songs of Dinosaurs.
We celebrate the Ignobel Prizes once again, and this year we take a deep dive into the Physics prize for 2020. Faraday waves (standing waves in liquids or liquid filled objects) look pretty, but can anything filled with like have one? What about a worm? Can you make Faraday waves and resonant frequencies in Worms? What happens when a laser, a worm, and a speaker go into a lab? The result is an Ignobel Prize.
Is that food safe to eat? How can you tell if food has gone bad beyond just reading a date? Ever been confused by best before or use by? A new type of label could make it a mater of colors. Color based labels could help detect if your food has gone bad or is contaminated by bacteria. How can we study the microbes that live inside our intestines? The gut microbiome is incredibly fascinating but difficult to study without damaging it. A tiny pill that takes snapshots of micro organisms inside your stomach as it passes through.
Plants are incredibly important for a healthy planet and a well fed population. How can we improve our plants by learning from some unusual ones? You normally picture a plant with lots of leaves, but some only grow one lonely leaf. Deep in limestone caves of South East Asia grows a plant with only ever one giant leaf. How can a plant survive with just one leaf and why does it continue to grow in size? What can we learn by studying the root systems of different plants? Can breeding plants to have more flexible roots lead to more resilient crops?
Telescopes can help us travel back in time to the early universe. We can watch galaxies form, the universe have a makeover and giant black holes appear. Using different telescopes we can learn about the cosmic dawn and the cosmic noon. The early universe was hazy and hard for light to travel far. What gave the early universe a makeover to allow starlight to travel? What fed the super hungry super massive black-holes of the early universe? Where did the early black holes find enough food to make them swell to massive sizes? What can we learn from the cosmic noon when most of the stars in the universe were formed?
Life in the ocean is more than just fish, whales and squid, it goes down to a microbial level. We can learn a lot about the health of a whole reef system by studying microbial life in the water. Just one teaspoon of the ocean contains thousands of unique microbes. The ocean currents carry and mix ocean microbes. What makes a healthy reef? Well take a look at the microbes. How can nutrient and soil runoff damage a reef?
Your senses bombard your brain with an overload of information, so how does it process it all? How does y our brain decide what information to focus on? The brain can focus voluntarily or involuntarily on regions of an image to best process it. How does your brain decide which parts of an image to focus on? What part of your brain helps gatekeep the waves of sensory input before it gets processed? How can your brain help regulate and manage an overload of sensory inputs.
The sun contains many mysteries, which are hard to unravel without special space probes. Why is the sun's corona so much hotter than the sun's surface? What helps form the biggest solar flares? When two arches of the sun's magnetic fields meet it can create some dangerous flares. Solar storms and solar flares can destroy satellites, power grids and spaceships. How can we better predict stellar weather and avoid disaster? Mapping out the Suns magnetic field can help us better predict stellar weather.
From cool fabrics, to melting ice and recycling e-waste. How can a fabric let air through, but keep water out? Clothing that is breathable, water resistant and thermally efficient hits the sweet spot of a super fabric. Making clothes more efficient at cooling but also self cleaning can reduce our reliance on air conditioning. Using electricity and some polymers we can spin up some new cool clothing fabrics. Melting ice in your frozen over freezer can be made easier with biphillic materials. Materials that both hate and love water at the same time, can help melt ice and make heater exchangers more efficient. Recycling e-waste can be tricky, but what if we could use the by-products to make new, stronger coatings for steel? Turning e-waste into a steel boosting coating.
Treating chronic pain through tiny electrodes in your ear. Can 3 phase like stimulating of nerves in your eye help treat chronic pain? Mapping out the inside of the ear in incredibly fine detail can help treat chronic pain. Fine tuning tiny electrodes inside the ear can help relieve chronic pain. Using a printer, tattoo paper and polymers to make long lasting electrodes. Flexible, thin and long lasting electrodes can make it easier to study the brain and the heart. Studying the brain over the long term just got easier with tattoo paper based electrodes.
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