Biological therapy: An emerging field

The Biological Therapies of Medicine: A Review article By: Anand P. Nair article A new field of science which aims at developing therapeutic agents based on biological factors, and is gaining increasing attention from the scientific community, has emerged in recent years.

The concept of BioTherapy is a new scientific paradigm in the field of Biological Therapeutics, and it has the potential to help us develop better treatments for diseases, including Cancer, Alzheimer’s, Alzheimers, Parkinson’s and other diseases.

The BioTherapeutics are based on the understanding that human bodies are made of biological components which have a high potential to modify or kill cancer cells, and which have been known for centuries to induce and induce apoptosis in cancer cells.

This concept was first developed in the mid 1960s by the Chinese chemist Liu Yansheng and the Russian physiologist Sergei Khuznetsov, who jointly developed the idea of the “proteome” in the late 1960s.

The proteome is a living organ-cell which is composed of proteins, RNA and DNA.

The DNA of the Proteome contains a blueprint of the human genome and is located in a “pocket” known as a plasmid.

The plasmids which make up the Prots, are not actually proteins but they are “jumping off” to the Protosphere.

These proteins are assembled by enzymes called transposases.

These enzymes break down the DNA, and assemble the proteins into an RNA molecule.

The RNA is then inserted into the cell and the DNA is transcribed into an mRNA.

This mRNA is then translated into a protein, which then binds to the protein’s binding site and forms a protein-protein interface, where the protein-RNA complex is broken down into its constituent parts.

These parts include, but are not limited to, the amino acid-binding domain, a protein complex called a pyrimidine ring, and a protein ligase, a enzyme that breaks down the ligand binding site.

A Proteolytic ApproachBioTherapy has the ability to use proteins and their ligands to treat a wide range of disease states, including: Cancer, Diabetes, Alzheimer, Huntington’s, Parkinson´s, Alzheimer´s disease and other neurodegenerative disorders.

BioTherapies are based upon the idea that a living organism can be used as a source of therapeutic agents.

For example, a tumor cell is capable of generating an antigen-specific protein which can kill a tumor.

This antigen-activated protein is known as an antigen receptor, which binds to and activates the tumor’s receptor proteins and thereby induces cell death.

A recent study by scientists at the Massachusetts Institute of Technology (MIT) and Harvard Medical School (HMS) has shown that the DNA of a living cell, which has been exposed to a chemical stimulus, is able to break down its own protein-DNA complex, which forms a plastid, and convert it into a proteolytically active protein.

These proteins, called microRNAs, are then activated by the genetic code.

This triggers the DNA to “switch” from a state of “active” to a state “inactivated” which is referred to as an apoptosis process.

This process then results in the death of the cell.

Researchers have found that these types of apoptosis-induced proteins can induce a number of other changes in the cell, including DNA repair, cell growth, migration, apoptosis induction, DNA repair and apoptosis inhibition.

The MIT researchers have also found that apoptosis can occur even after the DNA has been completely degraded and is no longer functional.

The research was published in the journal Nature Methods.

The authors suggest that using RNA as a therapeutic agent in these systems would be a new paradigm in bioengineering.

The ability to produce the proteins required for these processes is an advantage, because it allows for the generation of new therapies.

For example, the ability of these RNAs to induce apoptotic reactions has the capability to target a number different types of cancers, including melanoma, breast, colon, thyroid, pancreatic and brain cancers, as well as other diseases such as diabetes, obesity, asthma and neurodegenesis.

The team has also discovered that RNAs could be used to induce protein-coding genes in other cells, which in turn can affect other genes.

For instance, the researchers have shown that using microRNas to stimulate protein-causing genes in human cells could potentially target various diseases, such as Alzheimer´ s, Parkinson`s, Huntington`s and other brain diseases.

This approach could also be used in other diseases, particularly autoimmune disorders.

The team have been working on this issue for some time.

They first developed the technology in 2006, but were unable to use it to treat cancer cells in any clinical application because of a lack of a suitable model organism.

But now, a new study has shown for the first time that the RNAs produced by