The Peculiarity of Isotopes Xenon 129, Xenon 132, and Krypton 80 Upon Mars

Scientific study of Mars has revealed the existence of the isotope xenon 129 present within the almost non-existent Martian atmosphere. This has puzzled scientists as there are a limited number of understood methods to achieve such an outcome. The first method is via cosmic radiation, specifically galactic cosmic rays and/or solar cosmic rays striking elements like barium or bromine upon the Martian surface which can cause neutron capture, leading to the formation of xenon 129 naturally. This is because Mars has a very thin atmosphere and lacks a global magnetic field, which means it is less protected from cosmic radiation in comparison to the Earth. The second method is to detonate nuclear weaponry upon Mars which has left scientists dumbfounded as to how such an event could occur without third party intervention. Because of this, the majority of scientists believe the former method to be the causation, however there are scientists who take issue with this theory, mainly due to the high ratios of xenon 129, xenon 132, and krypton 80 within the Martian atmosphere which can be a byproduct of the fast neutron fission of uranium and plutonium weaponry, with all 3 of these isotopes able to be created by generating nuclear energy as well, the topography of Mars itself as vast glass like smooth regions exist which strikingly resemble the Trinity nuclear weaponry test detonation site in New Mexico, United States of America, as well as the high concentration of specific isotopes within specific regions (e.g. high levels of krypton 80 in the Cydonia region of Mars etc.)

The Causation of the Colors of the Aurora Borealis

The colors of the aurora borealis are layered with violet at the bottom, green in the middle, and red at the top, which signifies the structure of the atmosphere. Just as different chemicals create different colored flames (e.g. propane always producing a blue flame etc.), so too do photons bouncing around in the atmosphere off of different elements present. Nitrogen glows violet in a band at the bottom and oxygen glows green and red, creating a curtain 400 kilometers in length

The Symbolism of the Islamic Garden

Islamic gardens act as symbolic representation of the archetypal eternal heavenly garden, an attempt to provide a small peak into what could potentially wait for a person in the afterlife. Repetition of geometric shapes in Islamic gardens help to emphasize the link between the physical world and thereafter. Circular fountains represent Jannah, the Islamic representation of heaven, as the circle is symbolic of heaven. The square is always utilized as a symbol of the Earth, with circular fountains often found within square indentations to act as a metaphor for heaven and Earth meeting. The term “Jannat-al-Firdaws” which means “Garden of Paradise” in Arabic, is mentioned many times throughout the Quran, with Chapter 55 of Surat al-Rahman (pronounced “suu-rat al rack-man”), which means the “all merciful” in Arabic, holding the best and most descriptive accounts of what this garden truly would look like if experienced. Water plays a crucial role in these accounts, with multiple layers of symbolism for life present which is why water is the most important element within an Islamic garden as it is symbolic of the soul. Rain was and continues to be viewed as a merciful gift from heaven within Islamic culture as Islam stems from one of the hottest regions in the world. Water is essential to Islam and an Islamic paradise garden cannot exist without the incorporation of water to some degree. Islamic gardens are separated into 4 specific quadrants because of the “chahar bagh” (pronounced “cha-harr bahh”) which means “4 gardens” in the Persian language of Farsi, directly related to the 4 rivers of paradise, including a river of milk, honey, wine, and water, an order and harmony which underlies everything within an Islamic garden

The Renewable Resource of Urine Powered Electronics

Urine is rich in minerals and it is believed that this resource will be able to be harnessed and extracted efficiently and cost effectively at some point in the future to produce electrical energy. At the Bristol Robotics Laboratory in the U.K., urine is being studied as a potential energy resource for residential use within the near future (e.g. used to charge a smartphone etc.). Charging a smartphone with urine requires battery like fuel cells with Professor Ioannis Leropoulos (pronounced “yan-iss lee-raw-po-lis”) having developed a system capable of meeting this requirement. The application itself is referred to as “microbial fuel cell” technology, a system which leverages live bacteria to generate electrical current. Urine contains carbon, phosphorus, potassium, sulphur, magnesium, and creatinine, all elements which microbes require to continue living and growing which is why this technology functions as it does. The microbial fuel cell’s central tube is porous ceramic, allowing urine to permeate the tube and microbes to colonize it. As the elements of urine are consumed, electrons generated by the microbes are picked up by the cells of opposing wire coils, creating a battery. Not just any microbe will suffice however, as specific microbes are required for this process to be effective. To source the correct microbes, scientists leverage a plethora of microbes available within the natural environment (e.g. lake, pond, river sediment etc.). Each fuel cell produces 1.5 volts of electrical current, and when linked together in series, output can be increased to a level which is useful for daily activities. The system is able to be scaled so that it can be built into future homes, allowing for individuals and families to recycle urine as a means of generating electrical energy. Leropoulos’ work has been funded by the Bill & Melinda Gates Foundation as well as by the European Commission among others and is close to becoming commercially available as of 2020. For this system to benefit users, separate urinals would be installed but with redirected plumbing to funnel urine away from becoming mixed with common sewage and into a collection container, providing an on demand resource which can be utilized when needed