Sugar Rush Research Paper

#22. The possible application of the microbial fuel cells can able to power public places, landscape lights, aluminate park, and rural regions that can help in some countries.

Gaidos begins by using statements made by material scientist George Crabtree of the Argonne national laboratory to acknowledge the accomplishments of the more traditional lithium-ion battery, and explain how new batteries could improve upon them. Lithium-ion batteries did alter individual electronics in an enormous way but they are limited in larger

Microbial Fuel Cells use bacteria to convert waste into electrical energy. These bacteria break down almost any biodegradable organic waste including sewage and water waste and use it as fuel to generate power. Places like Penn State University and The Biodesign Institute in Arizona State University are already testing and improving this new alternative energy. According to Penn State University they have achieved in producing 1.5 watts per meter squared of amount of waste water taken in and believe that a large industrial plant will be able to produce near 0.8 watts per meter squared and will be able to support about 500 homes (9). This is a new technology that is being avidly researched, however it is not currently used in large

As explained by IDTech Ex report that the flexible electronics market will reach over $76 billion by 2023[1],while the market for flexible, thin, stretchable and bendable batteries will grow to become about $471 million industry by 2026[2]. Additionally, the product is considered the most promising energy storage device with low carbon dioxide emission. The energy density of the lithium ion battery range between 120-170 Wh Kg-1 and 250-380 Wh l-1 more higher than Ni-Cd and Lead-acid[3]. LIB has three major electronically active components namely anode, electrolyte, and cathode. The anode is the negative electrode that releases electrons into an external circuit during a discharge process that involves the oxidation of chemical reactions. On the other hand, the cathode is the positive electrode that is reduced during a reaction. Notably, the lithium ions are stored within the cathode after a cell is discharged. Both cathode and anode stores energy while on charge, and releases it on discharge[4]. Cathode materials have relatively high electrochemical potentials while anode materials have low potentials. This design approach helps maximize the battery’s output voltage. The final active component of the LIB is the electrolyte. It is a mixture of a set of organic solvents containing disassociated lithium salts that enables Li+ transportation between the anode and the cathode. Besides, other complementary components, such as current collectors attached to the

Some advantages of using batteries are that batteries can be used in areas, where no electricity is provided. Another advantage is that there are some batteries, which can be recharged a lot of time, and therefore, those batteries

Richard Jansen-Parkes (Parkes, 2014) states that, thanks to his invention, an estimated 80% of the dry cell batteries in the world are based on Urry’s work.

1) Introduction a) Attention Getter:”We need to help the environment!” “We’re harming our planet!” “We need to use a cleaner energy source!” With all this talk about wanting to help the environment while still using the resources we need, you would think someone would have already made a product that does this. Well, someone already has: solar panels.

In this article published by "Discovery News", author Renee Morad targets the general public in an attempt to educate them on an energy breakthrough - paper that has the ability to store electricity. Researchers at Linköping University in Sweden along with others from the KTH Royal Institute of Technology, Innventia, the Technical University of Denmark and the University of Kentucky developed a "paper" made of cheap and Eco-Friendly materials. The product its self takes only seconds to recharge, and can be recharged hundreds of times. It is extremely durable; so much that it is able to be folded into an origami swan.

In this project, we are creating batteries that completely work off of renewable energy. This battery will take in solar energy while there is sunlight, take in vibrational energy while it is moving, and get energy from thermal heating while heating up. The idea is to have the battery work fully off of those types of energies without needing to use any fossil fuels during the process. This is a continuing process as we have not have too much success in making sure we can apply enough energy for specific applications, I believe that we are headed in the right direction. This is good for environmental justice because the project will use minimal resources from earth and be will be applied using only renewable

One type of FCs is microbial fuel cell (MFC) that uses an active microorganism as a biocatalyst in an anaerobic anode compartment for production of bioelectricity. Although electrical current produced by bacteria was observed by Potter in 1911, more useful functions were developed during the next 50 years. finally, in the first of 1990s, MFC known as a promising technology to achieve energy and teat

LG Chem Battery – stores electric energy and uses it for later needs, it improves the quality of renewable energy and works for the stabilization of the power supply

I hope to be able to apply my knowledge of chemistry in this field, and consequently to learn more, and to create more efficient and cleaner forms of rechargeable energy that can be applied to electronic devices such as laptops, phones, and even cars.

We chose renewable energy, and solar energy for specific with our simple and naive thought of its potential in future and global scale influence. Having no contact with any professional in the field researching at Vietnam, we started like every teenager, with Google and Wikipedia. I wanted to do a research because I was bored with the traditional class. As I anticipated, the experience contradictory to the class. Start reading about solar cell was like entering a forest I’d never been in before. Books and scientific papers about it were the trees and soil, they all looked the same to a newcomer like me. At first, I felt lost and frustrated. But after getting used to it, I wandered. Sometimes, I picked up a rock, played with it, tried to throw it. I knelt down and examine the soil. I climbed the trees and learned the differences between them. I read and learned not because I needed to prepare for a test or exam as I did for the last eleven years before. I learned because I wanted to make something of my own, to try new thing and see how it turned out. Finally, when the forest felt like home, I started producing ideas. There were bad ideas, which can be theoretically eliminated. Some ideas I thought good, but later found out somebody had done it. And then came the idea I proud the most. I borrowed a material, Phycobiliprotein, and the mechanism from the master of using light energy, nature, to

The LG – 300G is powered by a lithium ion battery 3.7V with a capacity of 800 mAh. The dimensions of the battery are 5.29 cm x 3.39 cm x 0.45 cm. The battery works by an electrochemical reaction done by the anode, cathode, and electrolyte [1]. This chemical interaction of the anode, cathode, and electrolyte is the fundamental principles of what makes up a battery. An anode is a positively charged electrode that is connected to the negative terminal of the battery [3]. A cathode is a negatively charged electrode that is connected to the positive terminal of the battery [3]. The electrolyte is a medium that allows the free flow of electrons between the anode and cathode [1]. During the electrochemical reaction, an anode is going through an

More efficient and durable batteries are needed to satisfy the requirements of new technology developments.