The Origin of Life Upon Earth

Deoxyribonucleic acid (DNA) is most likely not the first building block of life because of its complicated double helix pattern. Ribonucleic acid (RNA) is also statistically unlikely because although it is only half as complex as deoxyribonucleic acid being that it does not resemble a double helix structure, but rather a single helix structure, it would have required 5 specific sugar molecules to spontaneously bind together, one by one, in a very specific order. Threose nucleic acid (TNA) however, would only require 4 identical simple sugar molecules to spontaneously, come together. This is theoretically the most probable candidate for being the first spark of life. Threose nucleic acid can easily base pair and exchange genetic information with ribonucleic acid making it the best blueprint which would have shown up long before the complex cellular machinery, which is found within all living cells today

How Plants Produce Food Via Photosynthesis

If a leaf is magnified 1000x, green bacteria like structures can be observed, referred to as “chloroplasts,” which are packed into virtually every cell of a plant. These chloroplasts behave like bacteria, retaining their own deoxyribonucleic acid, and are only 5000ths of 1 millimeter (0.005 millimeters or 5 micrometers) in diameter. It is inside chloroplasts that photosynthesis occurs. Photons, which are tiny and rapid moving particles of electromagnetic energy (e.g. rays of light), are harvested upon the surface of the plant’s leaves, where they then enter the plant’s cells and are absorbed by the light harvesting complex located within the chloroplasts themselves. It is here that the photon is leveraged to drive the photolysis reaction, which is to split a water molecule and release oxygen, electrons, and hydrogen ions, fueling the energy transfer mechanisms that ultimately convert carbon dioxide into sugars for the plant’s growth and survival

The Argument Against Stem Cell Research and Why This Will No Longer be a Problem in the Future

The reason stem cell research is controversial for some is because it is viewed as damaging and harvesting from one life to help another. This argument may be obsolete in the future as scientists are now discovering ways to create stem cells from cells within the body (e.g. skin cells etc.). The traditional method to create a stem cell was to take a skin cell, remove the deoxyribonucleic acid from its nucleus, placing it into an egg which does not have deoxyribonucleic acid but is capable of changing deoxyribonucleic acid, turning it into a stem cell which has the patients genome ascribed unto it. The new method involves placing 4 genes into the nucleus of the skin cell and allowing time to pass, as the genes reorganize the deoxyribonucleic acid so that it begins to appear as stem cell deoxyribonucleic acid, which changes the skin cell and causes it to shrink, losing its outside, converting it into an embryonic stem cell with the only difference between this method and traditional embryonic stem cell creation method being that this technique contains the deoxyribonucleic acid of the patient it is being inserted into. The 4 genes inserted into the cell create 4 proteins which exist naturally within an egg. These proteins trigger the skin cell deoxyribonucleic acid to arrange itself identically to how it would within an embryonic stem cell. Scientists refer to this type of cell as “induced pluripotent stem cells”, commonly abbreviated as “IPS cells”. Ideally, scientists want induced pluripotent stem cells to function identically to natural embryonic stem cells, avoiding the creation of unwanted cells which can lead to cancer. Researchers have discovered that some laboratory created stem cells fail to carry out the task provided and worse yet, some cause cancer to develop. Scientists are currently pursuing 2 paths to alleviate this problem, the first being the attempt to develop induced pluripotent stem cells which function identically to natural embryonic stem cells and the second being to create a system to recognize which induced pluripotent stem cells will fail in an effort to exclude these cells from being inserted into the human body

The Study of Bacteriophages in Antibiotic Research and Why They May be the Next Major Scientific Breakthrough

Bacteriophages, which are viral infections that reproduce to target and kill bacteria, were studied in Eastern Europe during the 1950’s by countries which did not have access to western medicine, including antibiotics. In 1 milliliter of sea water, billions of phages are present, with countless different varieties. Phages have tendril like appendages which are used to probe and identify hosts, clinging onto them, then forcing its own deoxyribonucleic acid down into the bacterial host. When this genetic code is introduced, it destroys the bacteria as a direct result. This leads to a chain reaction as hundreds more are produced each time this instance occurs, copies which then fledge out and find hosts of their own, building populations exponentially and wiping out bacterial infections completely. Bacteriophages were found prior to chemical antibiotics but when Penicillin was discovered, because it is so easy to develop and administer, chemical antibiotics became the clear path of choice in medicine with scientists not realizing the severity of this error until decades later. Antibiotics are often broad spectrum which is another reason antibiotic research overshadowed bacteriophagic research as different phages affect different bacteria and are therefore not broad spectrum. Because phages are self-replicating like bacteria, they have the ability to completely annihilate all bacteria presented before them in the same way that bacteria have the ability to totally annihilate their own host as well. Because of this, bacterial infections can be knocked out with 100% efficacy in all cases, regardless of the severity of the the infection, provided the correct phage is alotted enough time to do so. This is a task antibiotics often struggle to achieve and even if achieved, cannot be guaranteed in perpetuity as reinfection or resistance can occur at any time

The Evolutionary Reason Human Beings Seek Violence and Conflict

Whilst observing chimpanzees in the wild, Jane Goodall noticed her observed chimpanzee community beginning to divide amongst itself, with some members choosing to spend more time in the northern region of the jungle and others in the south. By separating themselves, these chimpanzees inherently relinquished their right to be recognized as part of their previous clan. This once seemingly peaceful community began to become heavily engaged within primitive warfare and conflict, with the entire community which had moved south annihilated into oblivion by their northern counterparts. Goodall stated upon record that it took her considerable time to reconcile this brutality, as she had always thought of chimpanzees akin to human beings however better, kinder, and gentler. Goodall believed that conflict was a human invention, but eventually realized and accepted that the dark and cruel side of human nature was deeply embedded within the human genome and inherited from primate ancestors. It is most probable that a propensity for brutality, violence, and conflict has been hard coded into human beings genetically, at the fundamental level of deoxyribonucleic acid which create proteins, which produce neurons, and subsequently unique neural traits, such as a propensity for violence behavior(s). It would be advantageous for evolution to have evolved such traits because if a person (or animal) is being attacked, the ability to fight back with deadly force is expediently beneficial. This is believed by most scientists to be the reason why such traits have evolved within human beings. It should be noted, prior to Goodall’s work, scientists had no knowledge of chimpanzees engaging in warfare and/or hunting practices, which makes her work groundbreaking and revolutionary to say the least as it provides unique introspective into human behavior(s)

The Bulking Agents Used in the Saffron Spice

Because saffron is so expensive it’s often mixed with other plants which are not actually saffron but are closely related to saffron to build up the bulk of the weight of a purchase. Turmeric is a primary example of a plant often used to help bulk up supplies. Distributors also use plastic as it helps add weight and eye appeal whilst actually providing nothing more than visual esthetics. Scientists can perform deoxyribonucleic acid examinations to determine if a sample is actually pure saffron or not. High quality saffron should have a humid scent which indicates that it was picked fresh. If the scent of saffron is slightly rancid, it means that it is old or of low quality

The CODIS System Technology Used By Law Enforcement

U.S. law enforcement uses a database referred to as “CODIS” when attempting to resolve criminal cases using deoxyribonucleic acid. The term CODIS is an acronym which stands for “combined deoxyribonucleic acid index system”. CODIS involves multiple databases including missing persons, convicted offenders, and forensic samples collected from crime scenes. Although U.S. law enforcements databases are not directly connected to any other nation in any official capacity, the underlying CODIS system is used by law enforcement agencies around the world. As of 2016, the CODIS system is currently used by 90 international laboratories within 50 countries. CODIS is maintained by the U.S. Federal Bureau of Investigation

The Fallout of the Chernobyl, Ukraine Nuclear Meltdown

In 1986, the world’s worst nuclear accident occurred, when the Chernobyl nuclear reactor within the Ukrainian Soviet Socialist Republic exploded releasing 400x as much radiation as the nuclear weaponry which was dropped upon Hiroshima, Japan in 1945 towards the end of World War II. The most dangerous classification of radiation which can be emitted after a nuclear meltdown or detonation of a nuclear atomic bomb are gamma rays, which like x-rays are made up of high energy photons which can travel long distances. Most gamma rays pass straight through an observer, but not all do and these free particles cause fragmentation of deoxyribonucleic acid and damage at the cellular level which can ultimately lead to cancer and subsequently death

The Genetic Component of Poverty

Identical twins share virtually 100% of their deoxyribonucleic acid and fraternal twins share 50% of their deoxyribonucleic acid making both types of twin ideal candidates for studies involving genetics and epigenetics to screen for factors for issues like social inequality and poverty with studies designed to research if social factors are due solely to the environment or if genetics play any role. Recent studies have demonstrated that in an economic climate of poverty, genes play almost no role whatsoever, however in a financial state of middle class or higher, genes play a formidable role, and in an income bracket of the top tier of society, genes seem to play a substantial role, being one of the key primary driving factors behind most financial decisions made by a person

The Danger of Red Meat and Heterocyclic Amines

When cooking red meat at a high temperature for an extended period of time, chemicals referred to as “heterocyclic amines” are produced. When human beings ingest heterocyclic amines, the cells within the body are penetrated and the heterocyclic amine binds with deoxyribonucleic acid. Heterocyclic amines damage deoxyribonucleic acid and if it occurs where mitosis takes place, it can turn otherwise healthy cells into cancerous cells. During the process of using high heat to cook red meat, amino acids and sugars combine to create free radicals which are precursors to heterocyclic amines. Rosemary and other herbs can help combat free radicals and therefore aide in reducing the the amount of heterocyclic amines absorbed by deoxyribonucleic acid within the body