Generic Embryonic Cells: Genetic Cell Differentiations

The unique properties of stem cells are that they are capable of dividing and renewing themselves for a long time. This means they can multiply as many times as they want and grow into lots of different types of cells. They are also under certain physiologic and experimental conditions. They can produce tissue or organ-pacific cells with special functions. There are three classifications of stem cells. There are Totipotent, Pluripotent and Multipotent. Each one of these classifies stem cells in a certain way. Totipotent cells can change into all cells types, Pluripotent cells can change into most cell types and Multipotent cells can change into certain cell types. There are two major types of stem cells, Embryonic and Adult. Although they are both major types of stem cells they are very different from each other. Embryonic stem cells can change into all types of cells and Adult stem cells can change only into certain types of cells. Embryonic stem cells are classified as Totipotent and Pluripotent. Adult stem cells are classified as Multipotent. Another reason why Embryonic and Adult stem cells are different is because they have

Embryonic cells should be allowed to be used because of the medical benefits they provide. They can be used to cure diseases such as Parkinson’s disease, diabetes, traumatic spinal cord injury, Duchenne’s muscular dystrophy, heart disease, and even vision and hearing loss (nih.gov 2009). There is no problem using them for medical purposes and it is not immoral to use them for this reason. Embryonic cells have the potential to save lives. Therefore, the usage of embryonic cells outweighs the ethical issues.

die. What is differentiation? Differentiation is when a cell stops dividing to perform a special function

Cell differentiation- All cells contain the same genes. Cell differentiation is the development of cells that become specialised for different functions. Cells that aren’t specialised can advance into specialised cells, this process is called cell differentiation and this can be seen in different organisms. Specialised cells can only be one certain gene and although genes for other specialists are present they are switched off.

Christopher Reeve, better known as superman, was not only an actor, but also an athlete and an adventurer. On two separate occasions, he flew an airplane sole across the Atlantic Ocean. On Memorial Day weekend in 1995, Chris rode his horse, Buck, to the starting box of a cross-country race in Virginia. Chris had trained and raced horses for almost ten years, so he felt the course ahead of him would be easy. But what Chris did not see coming was just as he and Buck approached the third jump, Buck would come to a sudden stop, sending Chris over the jump. He landed directing on his head, fracturing two vertebrae in his neck. From that day on, he was completely paralyzed. At the time, there was no known treatment, no medication, and no surgery to fix his damaged spine. For the rest of his days, Chris raised money and awareness for research into spinal cord injuries. One of the topics he pushed for was embryonic stem cell research. Christopher Reeve died on October 10th, 2004, never fulfilling his goal to walk again. But if he had gotten the support and funding for stem cell research, his story might have ended differently. Embryonic stem cell research should be funded in the U.S because it could lead to the treatment to many diseases, there are other sources of stem cells, but they are limited to their use, and the eight-celled blastocysts cannot grow any further to form a baby, so it is not harming living human beings.

The 70's focused on research that involved fetuses in utero. The 80's shifted to research of transplantation of fetal tissue into adults with serious medical conditions such as diabetes, Parkinson's, and spinal cord injuries. The latest saga involves using cells from days-old "spare" embryos that are created in infertility treatment process and all are considered unethical and unmoral issues.

With exponential increases in the capabilities of modern technology, it only fits that we use this technology to further our existence as a species. Embryonic Stem Cell Research is one of the ways we have come up with to advance our species into the future. However, the perpetrators and supporters have been under fire and controversy since its inception in 1979. The protesters are fighting it mainly because it is destroying unborn fetuses in the process.Personally, I have a special and specific connection to embryonic stem cell research. As a Type 1 Diabetic, I know that the Juvenile Diabetes Research Foundation uses embryonic stem cell research in its efforts to find a cure for Type 1 Diabetes. The main use for the stem cells they have is

What is Embryonic? Embryonic is relating to an embryo, or an unborn. Embryonic stem cell research is a theory by scientists, that research can cure painful diseases such as Diabetes, Parkinson’s disease, Cancer, Heart Disease, and many other unusual genetic disorders. The Embryonic stem cell research began in 1988 by James Thomson and his associates. James Thomson discovered how to excoriate the human embryonic stem cells from within the cell mass through IVF, given for research intendment. IVF is the act of removing fertile eggs from a female’s ovaries and fertilized with sperm in a laboratory culture dish.

Researches are continuously looking for ways to cure and treat all kinds of diseases, so why are there limits being put on the kinds of treatments that can be used to treat or cure a disease? Embryonic Stem Cells can be used to treat many different diseases, but some people have their opinion that using these stem cells in medicine is unethical because they are coming from a human embryo. There are countries that have banned the use of embryonic stem cells in medicine, and in America there are people arguing that it should be banned here. But what about all of the lives these stem cells are saving, what if research continues and these embryonic stem cells end up being a cure to a disease? With this in mind, human embryonic stem cells

Researchers are constantly looking for ways to cure and treat all kinds of diseases, so why are there limits being put on the kinds of treatments that can be used to treat or cure a disease? Embryonic Stem Cells can be used to treat many different diseases, but some people have their opinion that using these stem cells in medicine is unethical because they are coming from a human embryo. There are countries that have banned the use of embryonic stem cells in medicine, and in America there are people arguing that it should be banned here. But what about all of the lives that these stem cells are saving, what if research continues and these embryonic stem cells end up being a cure to a disease? With this in mind, human embryonic stem cells

Stem cells are undifferentiated cells that have the potential to differentiate into specialized cells that make up various organs in our body. Intriguingly, if the stem cells are given the right conditions, they can divide, differentiate and self-organize to form an organ by itself. Organs formed in this manner are called organoids. Specifically, Organoids are structures resembling organs, generated from embryonic stem cells in a three-dimensional culture system similar to in vivo. However, these structures need to possess specific characteristics in order to be termed as organoids; must contain multiple cell types of the organ it models (organ specific), must exhibit some specific functions of that organ and the cells should be spastically organized to mimic the targeted organ. Organoids have the ability to recapitulate the organ by self organizing itself. Self-organizing is governed by the combination of sorting out and fate specification and also, due to a growing movement away from two-dimensional culture. Different organoids can be generated different organs. Although, the generation of 3D organoids is a relatively new concept, it holds the potential to make promising changes in the field of medicine.

“Through the isolation and manipulation of cells, scientists are finding ways to identify young, regenerating ones that can be used to replace damaged of dead cells in diseased organs. This therapy is similar to the process of organ transplant, only the treatment consists of the transplantation of cells rather than organs. The cells that have shown by far the most promise of supplying diseased organs with healthy cells are called stem cells.” (Chapter Preface)

(d) Multipotent stem cells in red bone marrow or lymphatic tissue divide to produce specific stem cell such as myeloid stem cells and lymphoid stem cells. Differentiation separates lymphoid stem cells from myeloid stem cells. The myeloid stem cell differentiate to other cells, which become erythrocyte, platelets, basophils, eosinophils, monocytes and neutrophils. The lymphoid stem cell gives rise to B lymphocyte which processes in bone marrow, T lymphocyte which processes in thymus and natural killer cell.

In a naturally-created embryo, the DNA is programmed to express a certain set of genes. Later on, as the embryonic cells begin to differentiate, the program changes. For every type of differentiated cell - skin, blood, bone or nerve, for example - this program is different.

Since the discovery of human embryonic stem cells, scientists have had high hopes for their use in treating a wider variety of diseases because they are “pluripotent,” which means they are capable of differentiating into one of many cell types in the body.