A request from spellister. He wanted to see his E-Hero deck being used in a duel. The deck I’m using is a slight variation of his original. Decklist below: Total: 40 Monsters: 21 2 Debris Dragon 2 Eccentric Boy 3 Elemental Hero Neos Alius 2 Elemental Hero Ocean 3 Elemental Hero Prisma 1 Elemental Hero Stratos 2 Elemental Hero Wildheart 2 Elemental Hero Woodsman 3 King of the Swamp 1 Morphing Jar Spells: 14 3 E – Emergency Call 1 Heavy Storm 3 Miracle Fusion 1 Mystical Space Typhoon 1 Parallel World Fusion 3 Polymerization 1 Pot of Avarice 1 Reinforcement of the Army Traps: 5 2 Bottomless Trap Hole 1 Mirror Force 1 Solemn Judgment 1 Torrential Tribute Extra: 3 Elemental Hero Absolute Zero 2 Elemental Hero Gaia 1 Elemental Hero Great Tornado 1 Elemental Hero Terra Firma 2 Elemental Hero The Shining 1 Ally of Justice Catastor 1 Black Rose Dragon 1 Colossal Fighter 1 Goyo Guardian 1 Gungnir, Dragon of the Ice Barrier 1 Stardust Dragon The deck itself plays pretty easily. KotS helps you fetch Polymerization, as well as making Gungnir with Debris. Debris and Eccentric Boy are in here because they’re WIND monsters for Great Tornado. Prisma helps dump things like Ocean for Miracle Fusion abuse. Woodsman serves as another EARTH monster for Gaia, as well as letting my retrieve a used Poly. If you have a request, PM me or leave a comment. Remember to subscribe if you want moar YGO 2010 vids.
E-HERO Omni-Creator Light 11 star Warrior/synchro/effect 1 Tunder + 2 or more “Elemental HERO” monsters once per turn, you can activate 1 of the following effects: – send 1 monster from your hand to the Graveyard to add 1 Level 4 or lower “HERO” monster from your deck to your hand. -Send 1 Spell Card from your hand to the graveyard to add 1 “polymerization” from your deck to your hand. this is my contest entry n_n
042 – Biological Molecules Paul Andersen describes the four major biological molecules found in living things. He begins with a brief discussion of polymerization. Dehydration synthesis is used to connect monomers into polymers and hydrolysis breaks them down again. The major characteristics of nucleic acids are described as well as there directionality from 3′ to 5′ end. Protein structure is describes as well as the structure of its monomers; amino acids. The carboxyl and amino ends of a protein are described. The major groups of lipids are included with a brief discussion of saturated, unsaturated and trans fats. Finally carbohydrates and their sugar monomers are discussed.
Another Dragon deck from the pages of recent history. I thought I hadn’t seen a Hopeless deck in a while, so I rebuilt my previous half-built one. This time I’m determined to actually get some videos of the deck in action. Make suggestions for what to use in the side deck – I’m thinking about 2x Dark Simorgh, and a load of trap negation. Super Polymerization stealing opponent’s Stardust and Colossal FTW!
Plastics are synthetic materials, which means that they are artificial, or manufactured. Synthesis means that “something is put together,” and synthetic materials are made of building blocks that are put together in factories. The building blocks for making plastics are small organic molecules – molecules that contain carbon along with other substances. They generally come from oil (petroleum) or natural gas, but they can also come from other organic materials such as corn, wood fibers or banana peels! Each of these small molecules is known as a monomer (“one part”) because it’s capable of joining with other monomers to form very long molecule chains called polymers (“many parts”) during a chemical reaction called polymerization. As a raw material, corn is replacing petroleum in many industrial applications, from plastic containers to clean-burning ethanol. This clip is from the 1955 film, American Harvest, produced by the Chevrolet Division of the General Motors Corporation. The entire film is available on the Internet Archive.
Natasha Piracha talks about her research project, which involves cell regeneration through the use of micropattern surfaces. Natasha is advised by Dr. Kathryn Uhrich, professor in the Department of Chemistry & Chemical Biology at Rutgers University.