Extreme Peptides Summer 2013 Review

We have had a busy summer over here at Extreme Peptides. If you are new to our blog, we would like to welcome you and take this opportunity to take a look at some of the important product reviews and research we have been doing on the industry.

One of the most recent studies we did was a series on how peptides are manufactured.

Find the links to the articles below:

In the “How peptides are manufactured” series we covered all of the bases. An excerpt that I found interesting:

There is no question that there are billions of molecules of peptides available in nature. On the other hand, gaining access to pure quantities of them can be very difficult. This is just one of many reasons why researchers are increasingly relying on ways to manufacture synthetic peptides. While discovering brand new ones still requires the usage of organic, living cells, producing them in useful quantities tends to make it easier to go past that point.

Hopefully with time, scientists and research professionals will be able to fine tune the development of peptide manufacturing in their own labs. Until then we will continue to deliver the highest quality standards as a supplier to make sure peptide research can continue at full speed.

These next 3 case studies we did are my favorite. We always strive for the highest quality standards, in our products, but also in our content. These 3 article were naturally sited by Wikipedia editors, referencing us as being an authority on matters regarding different peptide topics. This is a huge honor and we look forward to producing more Wikipedia worthy content.

View the articles below:

If minor variations of the peptide can be found in abundance in a given sample, the comparison that was demonstrated using this method can be used to create a library search for these peptides.

The subtractive analysis of the analysis has been found to be particularly effective in managing the tandem mass spectra experiments that include LC/MS/MS chemicals.

Our “Aicar” studies have also gained a lot of attention over the past few months. These two articles are among the best work we have completed to date.

Click the links below to review those studies:

The development of aica-ribotide encourages these chemicals to enter de novo synthesis pathways, encouraging adenosine synthesis. This will inhibit adenosine deaminase which causes the ATP levels to increase. Adenosine levels will also increase with this application.

A specific application size for combinations of GW1516 and aicar has not yet been determined, nor has the increased risk of side effects in larger applications. Taking care to note side effects in animal test subjects is essential for those that are planning a long term application plan for continuing research.

Aicar is one of the most popular items in our store. If you are interested in test results regarding purity where our products are concerned, you can click here to review recent test results we have processed.

In our industry has a few extremely popular items. The research being conducted with Melanotan II and CJC-1295 seems to be more frequent or in depth due to the amount of orders and inquiries we receive on a daily basis. Another one of our more popular products is IGF-1 LR3.

Find the related research articles below:

Some studies have indicated that injecting igf 1 lr3 into an animal causes the animal to burn fat more effectively by increasing neuro function. However, igh lr3 is found to be significantly more effective in creating these results. Studies are ongoing to determine how these chemicals interact with the natural chemicals in animals to create these effects at an optimum level, or the side effects these chemicals may have on the animals’ bodies.

We are certain that you will find plenty of other useful information on our peptides and research chemicals if you poke around! We will check back in with another review in a couple of months! Enjoy!

*Our products are for scientific research purposes only. (Click here to read our disclaimer)

Click here to view the homepage of our store

Click here to view our entire PDF research library

Click here to view or download this article in PDF format

PEAKS: Proteomic Mass Spectrometry Software – Overview

Click here to view or download the product brochure

PEAKS 5.3, the mass spectrometry software used to ensure sensitivity and accuracy.
This video outlines the main features of PEAKS 5.3 and highlights the results achieved from running a typical proteomic workflow.
Items discussed include: de novo sequencing, database searching, multi-engine protein ID and quantification.

 

 

 

How Peptides are Manufactured (Part 6)

Problems With Moving From Peptides to Proteins

As you learn more about organic molecules, you are bound to find yourself fascinated by the similarities and differences between peptides and proteins. While both are composed of amino acids and may carry out similar tasks, it is often far more difficult to study proteins.

In fact, researchers cannot even produce a functional protein if it is over 200 – 300 amino acids in length. Unfortunately, when it comes to truly understanding biological fundamentals of any given organism, or even a cell, being able to produce functional proteins of any size is extremely important. You should have a good understanding of problems in this arena, as well as always remain aware of how lack of knowledge can easily skew data, and even cause you to reach all the wrong conclusions.

Peptides vs. Proteins

To begin, it is very important to realize that peptides are usually less than 50 amino acids in length. Since they are very short, their structure tends to be linear or made up of very few folds. Therefore, manufacturing synthetic peptides becomes a fairly simple matter of lining up the amino acids and then storing the finished product until it is needed.

Proteins are noted for their flexion and tendency to change shape based on temperature changes. Even if you synthesize a functional protein in the lab, a change in temperature, pH, or other environmental condition can render it useless before you have a chance to work with it.

There is no question that some researchers may not even be aware of these problems because they are relying on cell based protein production methods. That said, if you have ever cooked meat or other foods in order to “denature” various harmful proteins, then you can easily see how these issues can wreak havoc in a lab.

How are Proteins Folded

If you give it some thought, you are bound to be fascinated by the idea that microscopic organelles can create proteins with hundreds of molecules in a matter of hours, or even minutes. Aside from simply matching up amino acids to a template, ribosomes also ensure that proteins fold correctly.

Did you know that the loops of any given protein molecule can form lock structures that exactly fit the “key” provided by another protein? Aside from being the basis for hormones and other triggering mechanisms, proteins can also act as transport mechanisms that bind some molecules at one site while repelling them from other regions.

Problems with Creating Functional Proteins

Have you ever tried to walk a mile versus ride a bike or drive in a car? If you are able to use the exact same path, the outcome will differ mainly in the amount of time required to achieve your goal. When it comes to creating functional proteins in laboratory conditions, it is possible to force cells to create proteins they would not normally produce.

While mimicking the nature of viruses can work to a point, it cannot answer some of the most fundamental questions about protein manufacture. In particular, researchers have found it difficult, if not impossible to duplicate the exact folds found in any given protein. Aside from that, even when all of the folds are successfully duplicated, the protein molecule may unexpectedly fall apart or denature in situations where it should remain stable.

Why Creating Functional Synthetic Proteins is Vital to Our Future

Even if you do not follow the news, there are many signs that our world is suffering from incomplete information about how biological organisms work. This includes an inability to find out why bees and fish are dying off in excessive numbers, as well as an inability to curb skyrocketing cancer rates.

When it comes to finding answers, many researchers now turn to “genetics” and molecular biology for answers. As long as we are unable to synthesize proteins as effectively and consistently as peptides, it is fair to say that researchers will have a difficult time getting consistent results and answers to various questions.

Under these circumstances, harnessing everything from immune responses to hormones and neurotransmitters will remain a matter of trial and error. From there, one must ask if we, as a species truly have time for making more of the kinds of mistakes may soon rob us of bees and other vital organisms. From genetically modified organisms (GMOs) to biological warfare, counteracting human ignorance as well as finding truly useful answers may well hinge on being able to create synthetic proteins reliably and in sufficient quantity.

During the process of learning more about how living organisms function, you are sure to encounter a good bit of information about peptides. In some cases, you may find this information very complicated, and perhaps even spend years studying just a handful of molecules. This can easily lead to a situation where you will lose your ability to see the larger picture of living organisms and a complex dance that extends far beyond peptides.

In fact, even if you extend your scope to proteins, it may become very difficult to see past genes and recognize that other, non-amino acid based molecules are also very important.

That said, if you view peptides as useful tools, you will be able to use them effectively as well as keep them in their proper context. No matter whether you use synthetic peptides to analyze proteins or create new chemicals, you should always remember that cells and complex organisms seek optimal balances. Coming back to that perspective will make it easier to devise useful experiments as well as reduce the risk of producing the kinds of misleading results that prevent science and humanity from reaching its highest potential.

Click here for the first article

For the rest of the series and the resources used click here

*Our products are for scientific research purposes only. (Click here to read our disclaimer)

Click here to view the homepage of our store

Click here to view our entire PDF research library

Click here to view or download this article in PDF format