Stem Cells And Its Effect On The Body During The Initial Process Of Growth And Development

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

In 1998, because of the mouse stem cells scientists discovered that these stem cells can develop and grow in the laboratory. Some of the human embryonic cells in the inner cell mass are pluripotent: they are able to become all type of cell in the body. Actually, and scientists can get these cells from the inner cell masses of human embryos as well with a similar technique to segregate mouse embryonic stem cells. Now, human embryonic stem cells have being used to test new drugs, but which will spend the high cost for the test. Human embryonic stem cell are multifunctional because human embryonic stem cell can be used in any particular tissues in human body. For example, scientists found out that there are relationships between human embryonic stem cells and diabetes. With a bunch series of testing, analyzing, and studying human embryonic stem cell may be used in replacement therapy of diabetes in the future. As we known, nowadays, we have to obtain insulin from outside to treat diabetes, but there is a study shown that Using hES cells in both adherent and suspension culture conditions, we observed spontaneous in vitro differentiation that included the

Stem cells are unspecialized cells capable of renewing themselves through cell division, even after long periods of inactivity. Stems cells can develop into many different cell types within the body during early life and growth. Stem cells can also serve as an internal repair of sorts inside many tissues. When a stem cell divides, it has the potential to either become another type of cell with a specialized function or remain a stem cell.

Stem cells are unspecialized cells, which have the potential to develop into several different cell types—muscle cells, brain cells, skin cells, or red blood cells—during early development. Stem cells continuously divide in order to replace other cells. As stem cells divide, they have the potential to develop into a specialized cell or remain a stem cell. Induced pluripotent stem cells (iPSCs) play an essential role in tissue regeneration, and can circumvent immune system concerns. There are a variety of stem cells, including embryonic stem cells, adult stem cells, and induced pluripotent stem cells. However, the main focus of this paper will be the usage of induced pluripotent stem cells.

Most cells in our bodies are specialised to do a particular job. Like white blood cells are good at fighting off invaders, but they can’t carry oxygen like red blood cells. Stem cells on the other hand have the remarkable potential to develop into many different types of cell in the body. In addition, in many tissues they serve as an initial repair system, dividing without limits to replenish other cells as long as the person or animal is still alive. When a stem cell divides, each new cell has the potential to remain a stem cell or become a more specialised cell.

As a result of their abilities, stem cells have the potential to develop into many separate cell types in the body during early life. In addition, many tissues they serve as a sort of internal repair system, dividing practically without limit to replenish other cells as long as the organism is still alive (NIH, 2015). When a stem cell divides, each new cell has the potential to remain a stem cell or become another type of cell with a function that is permanent.

Stem cells are cells that have the potential to differentiate into any kind of cell type in the body. What makes them different from other cells is that they are not specialised and are capable of self-renewing for an indefinite amount of time. Stem cells can also be induced to become tissue

Since stem cells are unspecialized they work differently than other cells. Like for example if a stem cell is placed near a cartilage cell it won’t be able to do the same function as the cell. But, new cells that perform that function will arise from the stem cell. This is a process called differentiation. During this process the cell goes through a multitude of stages, and during each stage the cell becomes more specialized.

Stem Cell is a cell that helps develop into different cell types. Also they serve as a sort of internal repair system. When the stem cells divides, each new cells have the choice to stay as a stem cells or become another type of cells with a more specialized function. If they become different cells they can be muscle cells, a red blood cells, or a brain cells. The stem cells are capable of renewing themselves through cell division after long period of inactivity.

Stem-cells are very young, specialized cells. Usually coming from a human embryo, they have the ability to develop into more specialized groups of cells or tissues (“Stem Cells: A Primer”). As of 2001, scientists

Stem cells are undifferentiated cells in a multicellular organism that have the potential to develop into any cell type during early life and growth. They differ from other cells by two important characteristics. First, stem cells can renew themselves through cell division. Second, under certain physiologic or experimental conditions, they can be persuaded to become tissue or organ-specific cells

Stem cells are essentially undifferentiated cells; cells which are not yet adapted to a particular function, and have the capacity to differentiate into any specialised cell type within the organism. Every cell in plants and animals begins as these cells, created by mitosis and meiosis, and stem cells can continue to divide until they have become specialised and they lose this ability. After embryonic development, stem cells can be found all throughout tissues in the body, including the brain, bone marrow, blood, blood vessels, skeletal muscles, skin, and the liver (Crosta, 2008). Whereas the stem cell is undifferentiated and has no specialised function, the specialised cells have the specific parts that allow them to carry out their function

Imagine having lost your finger. You dip into a powder, and within 4 weeks, your entire fingers is grown back, skin, muscle, and nail. How is it possible? a little thing called stem cells. There are 6 different types of cells in your body. Nerve cells, pancreatic cells, heart cells, skin cells, muscle cells, and white and red blood cells. Those cells are made up of subunit cells, called stem cells. Stem cells are able to duplicate and make more cells. There are two types of cells. Embryonic cells, adult cells. In the past adult stem cells have been used to treat many cancers and blood disorders. Embryonic cells have a much wider range of types of cells which is why they are used. Stem cell research has gone far in the past several years, from growing organs from your cells, curing major diseases, and helping us understand organs and cells better.

In the year of 2006, the researchers made a progress by identifying several conditions that would allow a small amount of specialized adult cells to be developed naturally and to conclude a stem cell state called the Induced Pluripotent of Stem Cells.

Stem cells have the potential to make a large positive impact in the medical field. It is important to know the basics of stem cells, the potential of organ growth, the potential of testing new drugs and the added benefit of treating major illnesses such as Alzheimer’s and Diabetes. Like any part of new medical researches there are questions and controversies that come with it. Stem cells are very complex and should be studied more with more funding added to better understand this new advancement.