Stem Cells

Researchers use embryonic stem cells for studies aimed at understanding how cells develop and differentiate, as well as for potential applications in regenerative medicine to treat various diseases and injuries. They can be used to test new drugs, screen for genetic abnormalities, and model disease progression in a controlled environment.

Stem cells in Biology means a cell that can turn into about everything, stem cells can turn into muscle cells, skin cells, or some other normal cells. For Diabetes, the person's pancrease can not function any more which can not break down sugar which lets the whole body get too much sugar which is diabetes. So stem cells can turn into enzymes or cells to help the pancrease to return to the way of breaking down sugar, as this process goes on the persons body gets well and it is out of diabetes. I love getting into diabetes cause its the opposite of alot other diseases for example goat. But the main problem right now is medical history has not yet prove that it kills diabetes completely 100%. Good Luck!

Organ Genesis is an "Up-and-coming" phrase who's process aims to mimic the natural occurance of somatic embryogenesis in a laboratory setting. Somatic embryogenesis is a complex life process by which early phase stem-cells divide and differentiate from a germline gene configuration into specialized organ tissue which cumulativly form body structures. The goal of "Organ Genesis" is simply to create a functional organ. Many techniques are still being experimented including Organ Printing, Nutrient Skeletal Reconstruction, and ofcourse stem-cell manipulation. As Bio-Technology further advances in this feild, the definition of organ genesis might be more refined, but for now, in it's own fledgling developmental stage, it is just the terminolgy used for the work being done in the hopes of achieving an outcome similar to that of the phenomenon; Somatic Embryogenesis. Matt Somar- Department of Biology University of Central Florida.

Yes, stem cells contain DNA, which is the genetic material that carries the instructions for the development and functioning of an organism. This DNA is essential for controlling the properties and functions of stem cells as they differentiate into different cell types.

While adult bone marrow does contain stem cells, they are limited in their ability to differentiate into other cell types compared to embryonic stem cells. Embryonic stem cells are pluripotent, meaning they can develop into any cell type in the body, making them more versatile for regenerative medicine and research. Additionally, obtaining embryonic stem cells does not require invasive procedures as collecting adult bone marrow does.

Adult bone marrow stem cells have limitations compared to embryonic stem cells, such as a lower potential for differentiation into various cell types. Embryonic stem cells are considered more versatile and can give rise to a wider range of cell types, making them more suitable for research and potential therapeutic applications. Additionally, adult bone marrow stem cells may not be as pluripotent as other types of stem cells, which could affect their effectiveness in certain research and treatment contexts.

It appears there may be a typo in your question. If you are asking about an "ECOA" stem, it typically refers to the Equal Credit Opportunity Act, a U.S. law that protects people from discrimination in financial matters, such as credit applications and lending.

In order to obtain stem cells from an embryo, that embryo has to die. Now, this may happen unavoidably, in the case of a miscarriage, but it can also happen deliberately, in the case of an abortion, so the stem cell issue becomes connected to the abortion issue.

In postnatal muscle, skeletal muscle precursors (myoblasts) can be derived

from satellite cells (reserve cells located on the surface of mature myofibers) or from cells

lying beyond the myofiber, e.g., interstitial connective tissue or bone marrow. Both of

these classes of cells may have stem cell properties. In addition, the heretical idea that postmitotic myonuclei lying within mature myofibers might be able to re-form myoblasts or

stem cells is examined and related to recent observations for similar post-mitotic cardiomyocytes. In adult hearts (which previously were not considered capable of repair), the role of

replicating endogenous cardiomyocytes and the recruitment of other (stem) cells into cardiomyocytes for new cardiac muscle formation has recently attracted much attention. The

relative contribution of these various sources of precursor cells in postnatal muscles and

the factors that may enhance stem cell participation in the formation of new skeletal and

cardiac muscle in vivo are the focus of this review. We concluded that, although many endogenous cell types can be converted to skeletal muscle, the contribution of non-myogenic

cells to the formation of new postnatal skeletal muscle in vivo appears to be negligible.

Whether the recruitment of such cells to the myogenic lineage can be significantly enhanced

by specific inducers and the appropriate microenvironment is a current topic of intense interest. However, dermal fibroblasts appear promising as a realistic alternative source of exogenous myoblasts for transplantation purposes. For heart muscle, experiments showing the

participation of bone marrow-derived stem cells and endothelial cells in the repair of damaged cardiac muscle are encouraging.

A pliant stem is a stem that is flexible and easily bends without breaking. This flexibility allows the stem to sway with the wind or other external forces, providing support and reducing the risk of damage. Examples of plants with pliant stems include bamboo and certain types of grasses.

There is no need for Therapeutic or reporductive cloning.

There is no possibility of rejection (granted that the stem cells were donated)

Fibroblasts are prominent in the skins dermis, no problems isolating them. As where, stem cells are more difficult to isolate in an adult (which coincides with my first point)

There are two main types of stem cells: embryonic stem cells, which are derived from embryos, and adult stem cells, which are found in various tissues throughout the body. Each type has different abilities and limitations in terms of differentiation potential and applications in regenerative medicine.

Stem cells have the ability to differentiate into multiple types of cells. For example, embryonic stem cells can become any cell in the body and hematopoietic stem cells can become any blood cell (red blood cells, myeloid cells, and lymphocytes). They also possess the ability to renew themselves when dividing, meaning that when a stem cell divides, one daughter cell remains a stem cell while the other becomes more specialized. Therefore, the stem cell can theoretically generate an infinite amount of any type of body cells. However, an obstacle in utilizing stem cells is that though scientists have found ways to coax the stem cell to become different cell types, they have been unsuccessful to find a way to make stem cells produce a coherent organ. Meaning that though scientists can make liver cells from stem cells, they can't make an entire liver since the architecture of an entire organ is extremely complex. This is also the reason why we do not yet have laboratory-grown organs for transplantations purposes.

Yes, CPT code 38205 refers to the harvesting of stem cells from the bone marrow. This procedure involves using a needle to extract bone marrow containing stem cells, which can then be used for various medical treatments.

a regular cell is natural ???????? right?

A stem cell is a cell that can renew themselves to form other types of cell.

Example:Human egg cell/ovum

This is an example of a totipotent stem cell.

Totipotent stem cells are those cells that can transform into any type of cell.

There are many types of stem cells like pluripotent stem cells, multipotent stem cells etc.

An answer stem is the part of a multiple-choice question that presents the initial information or prompt to which the answer choices are related. It typically poses a question or incomplete statement that the test-taker must respond to by selecting the correct answer choice.

A stem analysis is a forestry technique used to study the growth and development of trees. It involves measuring and analyzing characteristics such as diameter, height, volume, and age of tree stems to understand their growth patterns and potential productivity. This information helps foresters in managing forests effectively for optimal yield and sustainability.

No, stem cells do not contain chlorophyll. Chlorophyll is a green pigment found in plants that is essential for photosynthesis, the process by which plants convert light energy into chemical energy. Stem cells are undifferentiated cells that have the ability to develop into different types of cells in the body.

Skin stem cells can only differentiate into skin cells, meaning they have a limited capacity to develop into other types of cells. This specialization allows them to constantly replenish the skin's outer layer and repair any damage that may occur.

Its DNA.

in the bones

Learn.

Stem cells can be programmed to become any cell in the body. An example of current research is the stem cells can be programmed to become neurons which are the cells that communicate in your brain which stop developing shortly after you're born.

Stem cells are undifferentiated, which means that they can become anything.

A skin cell is only a skin cell, a nerve cell is only a nerve cell, and a skin cell can't do what a nerve cell does, or vice versa.

But a stem cell can become either a skin cell or a nerve cell, or any other cell your body has.

An embryonic stem cell potentially can develop into ANY cell in the body theoretically without limit to replenish, and an adult stem cell is only able to mature into a specialised tissue cell from which tissue the cell is positioned.