Switching Careers - 7 Key Steps By Alotta Candor Article Source: EzineArticles.e

Are you thinking about switching careers? If you are, you're not alone. Most Americans switch careers three times in their lifetime. Nevertheless, switching careers is scary. And it's especially paralyzing the older you get. But making a career switch is very possible and much more common than you might think. Before you're ready to leap, realize that it's a heavyweight decision that deserves some time and solid thought. Here are seven steps to help you on your way.

1. Gain insight from your current situation.

When considering a career switch, the first thing you should do is learn from your current situation. To do this, take a step back and study what you do for a living today and why you do it. Examine the reasons that you are in your current job or career. Was it what you went to school for? Was it what your parents wanted you to do? Was it the "hot career" at one time? Did you just "fall into it"? Did you love it at one time? Did you do it for the money you could make? Was it just to pay the bills? The answers to these questions can provide valuable insight into the core reasons that you want or need to change.

Now examine why you want to leave your current career field. Remove any company or management related politics that are specific to your current employer from the picture. See your situation for what it is and ask yourself why you are looking to switch. Are you being forced out because of market shifts of business trends? Are you burnt out? Do you want to make more money? Are you miserable doing what you do? Have you tried your best but found that your career is "just not a good fit"? Have you decided its time to pursue a long lost career love?

Inspecting your current situation and reasons for your desire to change careers will provide a foundation for your next step.

2. Look inside

Whether you already have a career in mind or you are searching for a new career, you must look inward. In order to gain the most from your reflection, it is essential to start with a clean slate. Set aside any notions (real or imagined) about what type of money certain careers offer. Discard any stereotypes or judgments of occupations. Distance yourself from any pre-conceived ideas about what you are right or destined for.

Now seriously examine what you truly love. First start with the obvious. Look at your hobbies and interests. List out the things you are passionate about or in which you have talent. Give yourself credit for things you are good at and don't be afraid to write things down that you love, but are not yet good at. Write them all down, even if you think they may not be a possible career path. You're just brainstorming at this point and you should not eliminate anything right out of the gate. And it's important to bear in mind that what you may think are your interests are not necessarily all of your interests. To help you get a good look at your interests, observe the simple things. What kinds of news stories perk your interest? What kinds of TV shows do you enjoy? What kinds of books magazines do you find yourself drawn to? What kind of people do you like to associate with or find interesting? What parts of your current career have brought you the most satisfaction?

Biology Terms: Countershading By Gwen Nicodemus Diamond Quality Author Article Source:

Many marine creatures are countershaded, which is a type of camouflage for them. What exactly is countershading?

Imagine that you are in a boat on the ocean and looking down. The ocean water looks dark blue. If you were an animal in the ocean, what color should you be to hide from animals in the sky, or higher up in the ocean, than you are?

Now, imagine you are SCUBA diving on the bottom of the ocean floor and look up, toward the sky. During the daytime, the sunlight filters into the water. What color should an animal be so it can blend into the water and hide from the animals below it in the water?

Animals selected for countershading

Animals that are darkly colored on their top part and lightly colored on their underside are said to be countershaded.

Animals that are darkly colored on their top part, where their dorsal fins are located, are less likely to be found and eaten by sky creatures or ocean animals higher up in the ocean than they are. Their dark colored skin blends into the color of the ocean around them and they have higher survival rates than animals that are lightly colored on the top.

Fun Science Experiment For Kids - How To Make Giant Bubbles! By Kalpana Nair

Fun Science Experiment For Kids - How To Make Giant Bubbles!
By Kalpana Nair



Fun Science experiments are not only liked by children but adults as well. Personally, I have tried many Science experiments when I was a kid and later on with my own family members. Making giant bubbles is an absolute favorite of mine and you can do this experiment too in a matter of minutes.

Things You Will Need

In order to make giant bubbles, you need to get your hands on the following items -

1. Washing liquid.
2. Glycerine or corn syrup.
3. Jug
4. Water.
5. A large bucket.
6. A spoon.
7. A wire coat hanger.
8. A ball of string.
9. An electrical tape.

How To Make Your Own Giant Bubbles

The Biotechnology Industry By Richard Graydon, M.D.

The primary goal of the biotechnology industry is to invent new biologically-active substances, for the treatment of disease, the pharmaceutical industry, and the management of agriculture.

The U.S. is the world leader in biotechnology, currently providing employment for more than 300,000 people in over 6,000 U.S. biotech companies, with an estimated market capitalization of approximately USD 281 billion in 2008. The biotechnology industry has more than tripled in size since 2000, with revenues increasing from USD 25 billion in 2000 to more than USD 80 billion in 2008. In 2007, Amgen, Inc., the world's largest biotechnology company, achieved total sales of USD 14.7 billion. Expectations are that the biotechnology market will increase to more than USD 130 billion by 2011.

Geographically, the U.S. accounts for 65% of the biotechnology market, Europe 23%, Canada 7%, Australia 3%, and the rest of the world, 2%.

amgen bio technology companies

Amgen Inc. (NASDAQ: AMGN, SEHK: 4332) is an international biotechnology company headquartered in Thousand Oaks, California. Located in the Conejo Valley, Amgen is the world's largest independent biotech firm. The company employs approximately 17,000 staff members. Its products include Epogen, Aranesp, Enbrel, Kineret, Neulasta, Neupogen, Sensipar / Mimpara, Nplate, and Prolia. Epogen and Neupogen (the company's first products on the market) were the two most successful biopharmaceutical products at the time of their respective releases.

BusinessWeek ranked Amgen first on the S&P 500 for being one of the most "future-oriented" of those five hundred corporations.[3] BusinessWeek ostensibly calculated the ratio of research and development spending, combined with capital spending, to total outlays; Amgen had the fourth highest ratio, at 506:1000.

Amgen is the largest employer in Thousand Oaks and second only to the United States Navy in terms of number of people employed in Ventura County.

biotechnology news

Biotechnology Institute
Biotechnology Conferences
Biotechnology Business
Biotechnology Companies
Biological Substances
Biotechnology Holds
Biotechnology Overview
Biotechnology Information
Biotechnology Definition
Biotechnology Articles

With plans to expand into a new campus under construction in South San Francisco, Amgen abruptly halted construction on the plans and instead put the 365,000 square feet (33,900 m2) of new space on the sublease market.[4]

It is a leading member of the U.S. Global Leadership Coalition, a coalition of over 400 companies and NGOs that promotes increased funding for US diplomatic and international development programs.[5]

In 2006, Amgen began sponsoring the Tour of California, one of only three major Union Cycliste Internationale events in the United States.

bio technology information

 bio technology information in above is tag line or world list for reference

1,Peer Reviewed
2,About Biotechnology
3,Agricultural Biotechnology
4,Conferences Worldwide
5,Biotechnology News
6,Biotechnology Industry
7,Genetic Engineering
8,Biotechnology Institute
9,Biotechnology Conferences
10,Biotechnology Business
11,Biotechnology Companies
12,Biological Substances
13,Biotechnology Holds
14,Biotechnology Overview
15,Biotechnology Information
16,Biotechnology Definition
17,Biotechnology Articles
18,Cougar Biotechnology
19,Biotechnology Revolution
20,Conferences Conventions
21,Dupont Biotechnology
22,Electronic Journal
23,Cruz Biotechnology
24,Genetically Modified
25,Industrial Biotechnology
26,Industry Center
27,Industry News
28,Learn About
29,Massachusetts Biotechnology
30,Microorganisms Such
31,Nature Biotechnology
32,Overview Industry
33,Degree Programs
34,Santa Cruz
35,Substances Such
36,Trade Shows
37,Worldwide Conferences
38,Biological Substances Such
39,Biotechnology Conferences Worldwide
40,Biotechnology Overview Industry
41,Learn About Biotechnology
42,Overview Industry Center
43,Santa Cruz Biotechnology
this list in 12 November 2010 update an for reference bio technology center

What is an Aircraft Carrier By David Bunch

An aircraft carrier is a warship capable of landing and launching planes, and equipped to service these planes and their crews. The planes take off from and land on a floating runway, or flight deck, that causes the ship to be called a "flattop." It is this flight deck that makes the ship an aircraft carrier. The United States Navy was the pioneer in the creation of the aircraft carrier. The first time an airplane ever took off from a warship was on November 14, 1910, when a plane of the United States Navy took off from a platform on the bow of the cruiser Birmingham. On January 18, 1911, the battleship Pennsylvania built on its stern a platform so large that it was able not only to launch a plane but also to land one.

In 1922, the United States built its first warship exclusively for the purpose of carrying and flying aircraft-the first real air¬craft carrier, in basic design not much different from the aircraft carriers of today. It was the United States Ship Langley. By 1944 the aircraft carrier had be¬come the first-line ship of every navy, for both offensive and defensive purposes. The Navy had been reorganized around the carrier. After five hundred years and more, the battleship was no longer the most important warship of the fleet.

In 1952, there were four general classes of aircraft carrier in operation, and two new carriers of a super-class were being built. Of the aircraft carriers already afloat, the classes were: CVBs, the largest class, such as the Midway and the Franklin Delano Roosevelt. These have a displacement of about 60,000 tons, or about the same as a large battleship. The flight deck is about 900 feet long and 113 feet wide. The top speed is 34 knots. CVs, the next largest class, such as the Boxer and the Valley Forge. These have a displacement of about 40,000 tons, and are almost as long as the largest carriers, but the flight deck is narrower, about 800 feet by 93 feet. The speed is about the same, 34 knots. The CVLs, with a flight deck 620 feet by 76 feet, a speed of about 33 knots, and a displacement of 10,000 to 15,000 tons. The CVEs, the smallest of the carriers, known as the "jeep" carriers.

David is the author of many articles including Best Friend Quotes and also the author of Best life quotes.

Other articles:

1,Peer Reviewed
2,About Biotechnology
3,Agricultural Biotechnology
4,Conferences Worldwide
5,Biotechnology News
6,Biotechnology Industry
7,Genetic Engineering
8,Biotechnology Institute
9,Biotechnology Conferences
10,Biotechnology Business
11,Biotechnology Companies
12,Biological Substances
13,Biotechnology Holds
14,Biotechnology Overview
15,Biotechnology Information
16,Biotechnology Definition
17,Biotechnology Articles
18,Cougar Biotechnology
19,Biotechnology Revolution
20,Conferences Conventions
21,Dupont Biotechnology

Offshore Oil Drilling Rigs Actually Safe? Get the Facts Now By Oneil Wilson Platinum Quality Author

The question of the day seems to be, are the offshore oil drilling rigs actually safe. The answer would be a resounding... no.. well.. maybe. This week a spill that is expected to reach proportions that out-spill the Exxon Valdez is affecting an area already sensitive. Marine mammals, fish, wildlife and even some shore areas are being affected, along with industry and tourism.
Is Offshore drilling really safe? At the moment if you ask any of the people who may be affected by it, they'd have to admit that they don't believe that it is. If you were to ask our President today, I wonder if his answer has changed from the affirmative one he gave in the early part of April.
Whatever the reason for the explosion that caused the massive and still uncontrolled spill, that particular episode of offshore drilling wasn't safe. In retrospect, while everyone was asking the question, "is offshore drilling safe?", they were not addressing the real issue. The question of whether or not off shore oil drilling is safe is a moot point. It wasn't safe this time.
The question at hand should not have been, "Is this technology safe?", but instead, "Do we have the technology to fix what we damage if it is not?" That answer is obviously a resounding no.
It may be the safest and most wholesome technology available, but regardless of that fact, sometimes, even the most safe technology goes awry.
In light of the current efforts to clean up what is clearly an ecological disaster of devastating proportions, what difference does the question of whether or not the offshore drilling is safe really make? This time, it wasn't safe, and now we deal with the aftermath.

O'Neil is a eager internet newbie in the art of writing articles. His newest interest is in girl games. So come visit his recommended where you can play girl games. You can venture it his most popular section of games, Y8 Dress Up.

Article Source: http://EzineArticles.com/?expert=Oneil_Wilson

Inspired by Dave Courchene By Neal Ryder

I just came across something we all can do that resonates so strongly with me.
"Get a bottle of clean water, hold it close to your hearts and offer a prayer. Through the Water, send a message of love and gratitude to the Earth, and to all water of the Earth that has been affected and contaminated. Send your love to the Water and to Mother Earth.
This strong love of Spirit that you will put into the Water will give strength to Mother Earth.
Go to your nearest body of Water - a creek, a stream, a river, a waterfall, lake or ocean, and pour your Water that you have blessed with your prayer of gratitude. It will be your spirit of love to the Earth that offers our best chance of survival."
From Dave Courchene of the Turtle Lodge
What if we include a vision that folds in nicely with this inspired call to action. Perhaps it will resonate with you as it does with me.
What if we blessed water monthly? Weekly? Daily? Quarterly? With the cycles of the moon? Whatever type of commitment makes sense to the individual. Across the planet those participating would be contributing individually but as a whole there would be a consistency of intention.
While not everyone lives near water, the intention of gratitude transcend physical limitations. This could be done wherever you live; city, plains, mountains, desert. The planet is a whole - water, oxygen, atmosphere, ice, land, plants, animals and human all are part of Planet Earth.
We can bless and pour the water on the land or in water. Be where you are, be with the intention of blessing. That blessing would be carried to the atmosphere as the water evaporates or would blend with water. That blessing could then be part of the rain as it falls to bless the planet, people, plants and animals. We might then absorb that blessing as we drink the water - same with the animals and plants. A cycle of blessing might be created. Our blessings would travel to all ecosystems carried by the winds that promote the general circulation of air on the planet.
Singular group actions carry weight. Consistency of action produces change. Consider it. Don't get caught by a belief in victimhood - which suggests we have no choice. We do. We can make a difference - link choice, intention and action. Our blessings can affect all of life in ways we can't imagine.
If you don't remember to do it every day, do it a few times a week, or weekly. It's about people sharing a common intention. If this resonates, simply make an effort and do the best you can. Collectively it makes a difference.

Neal is a gifted intuitive healer, inspirational author and global teacher who has dedicated his life and training to bringing forth the Divine Radiance in people - not in concept but as a state of being - which infuses his clients with healing, wholeness and celebration.
Neal offers a wealth of information through his blog, newsletter, articles, workshops, intensives, expansive programs and internet radio shows all drawn from the core content in his book, Living a Radiant Life: A Compassionate Compass To Unity and Wholeness.

Article Source: http://EzineArticles.com/?expert=Neal_Ryder

Biogas Upgrading Technology - Cleaning Raw Biogas Into Usable Natural Gas By Richard Belcher

Digester systems that convert waste material into biogas are becoming more prevalent throughout the world. Rural farmers now have a means to produce good quality fertilizer and biogas from waste materials like manure in a cheap renewable way.
The problem is that this biogas produced is roughly 60% methane and 29% Co2 with trace elements of H2S, and is not up to the quality of 99% pure methane natural gas if the owner was planning on selling this gas or using it as fuel gas for machinery. The corrosive nature of H2S alone is enough to destroy the internals of expensive plant.
The solution is the implementation of a biogas upgrading or purification system. Biogas upgrading is a series of processes where the gas is first cleaned from contaminants and then dried, so that what is left at the end of the process is 98%+ methane fuel gas. Manufacturers that produce biogas purification systems each have their own different processes and technology that they employ to produce the sales quality gas. A few of them are detailed below.
Water Washing
This is the most common method of purifying biogas. Here raw biogas from the digester is compressed and fed into the scrubber vessel where passing water streams adsorb the gas contaminants leaving near pure methane. The gas is then dried by dessicant in the drier columns and exit the system as 98%+ pure natural gas.
Pressure Swing Adsorption
Otherwise known as PSA, this purification method separates the Co2, Nitrogen, Oxygen and Water from the raw biogas stream by adsorbing gases at high pressure and desorbing them at low pressure as waste. The PSA system usually consists of 4 different adsorption columns working in sequence; Adsorption, depressurizing, desorption and repressurizing.
The raw biogas is compressed and fed into the bottom of the adsorption column where it is purified. during this time the remaining columns regenerate, such that there is always 1 absorber column actively cleaning gas. PSA does not scrub hydrogen sulphide so this most be removed before it enters the compressor.
Polyglycol
Using polyglycol (Tradename Selexol)to purify biogas is similar to the water washing method with regeneration. Selexol can adsorb hydrogen sulphide, carbon dioxide and water. However the energy required to regenerate the solution after adsorbing H2S is high, so hydrogen sulphide is removed before the process.
Chemical Reaction
Raw biogas can be upgraded by various chemical reactions that remove the C02 and other contaminants from the gas stream. The chemicals such as Alkanolamines react at atmospheric pressure in an adsorption column with the Co2 and are regenerated afterwards with steam. The hydrogen sulphide must first be removed to avoid toxifying the chemicals.
Advantages and Disadvantages
Each plant type fulfills its purpose of supplying high quality natural gas for grid injection. However depending on the site location, various environmental and economic factors might make selecting a certain type of system a more sensible choice. For areas where water is an expensive resource a more appropriate choice would be a PSA or Selexol system which regenerate the adsorbent, however this has to be offset against the heat input required in regeneration.
Another important factor to consider is the methane loss associated with each design. The methane loss is measured using gas analyzers and flowmeters at the suction and discharge sides of the plant. Most plants are guaranteed by manufacturers to achieve a maximum 2% methane loss. Some recent studies however have measured between 8-10% methane loss at PSA and Selexol plant sites, possibly due to leaks and poor maintenance. Chemical systems have even lower guaranteed losses since the chemicals selectively react with the Co2 in the gas stream instead of adsorbing.
Energy Demands
For a biogas upgrading plant the auxiliary power required to drive the compressors, pumps etc is anywhere between 3-6% of the total energy output in the form of natural gas. The cost associated with upgrading biogas also decreases with larger plant size, a smallish plant of 100 metres cubed per hour will upgrade gas at more than twice the cost of a plant outputting 200 - 300 metres cubed per hour.
Conclusions
A Digestor is only the beginning of the process to convert biomass into useful high quality natural gas. A biogas purification system takes the raw biogas at around 60% methane from the digester and through a special process outputs 98% methane for ether use as fuel gas or supplied to the grid. The four main upgrading processes are water washing, pressure swing adsorption, polyglycol adsorption and chemical treatment. Water washing and PSA are the most predominantly used systems in the world today. Typical energy requirements for a biogas purification system are between 3-6% of the total methane output, with smaller plants cost more to run than larger ones. As digester systems become more common around the world and people begin to catch on to biogas as a renewable source of energy, no doubt we will see more of these systems become available and more innovative designs.

methane-digester.net/biogas-upgrading-systems/ Article Source: http://EzineArticles.com/?expert=Richard_Belcher

Triplet Genetic Code - A Book Review Which Allows the Reader to Better Understand DNA Nutrition By Chris Bielke

This book presents the basics of what the genetic code is, so that the reader can have a basis of understanding of molecular biology. The backbone of the book is the central dogma of molecular biology, which is the idea that information flows from DNA to RNA to protein. It not only defines and discusses what the genetic code is, but discusses the rules of the genetic code and the type of mutations that can occur in the system.
The basic building blocks of both DNA and mRNA are adenine, thymine, guanine, and cytosine. These are defined as nitrogen bases and are usually labeled A, T, G, and C. These bases code for twenty specific amino acids. The twenty amino acids that can be created are as follows: alanine, arginine, asparagine, aspartate, cysteine, glutamine, glutamate, glycine, histidine, isoleucine, leucine, lysine, methionine, phenylalanine, praline, serine, threonine, tryptophan, tyrosine, and valine. A nucleotide is defined as a linked bunch of molecules, composed of a phosphate group, nitrogenous bases, and a pentose sugar. The nucleotides code for these amino acids in groups of three, giving 64 possible combinations. The groups of threes are called codons. There are actually three codons that don't code for amino acids. These codons are called stop codons and they signal signal translation termination. These codons are UAA, UAG, and UGA.
The genetic code is said to be degenerate. This means that the code doesn't code to its capacity. Basically, the twenty known amino acids that can be created by the genetic code can be made by more than one type of nucleotide sequence. For instance, CUU, CUC, CUA, and CUG all code for the amino acid leucine. Another example is that CGU, CGC, CGA, and CGG all code for arginine.
According to the book, there are three main rules for the genetic code. The first rule is that the sequence of nitrogenous bases must follow the direction of translation. mRNA is translated in the 5' to 3' direction, so the codon sequences have to occur in the same orientation. This ensures that they will be properly translated. The first base of a codon must be located at the 5'-most end of the codon. For instance, the following three bases code for the amino acid cysteine: CGU. Two codons code for this amino acid, 5'-UGU-3' and 5'-UGC-3'. 5'-UGC-3' matches the codon CGU if you read it backwards.
The second rule is that one nucleotide can be used per reading frame. In other words, one nucleotide can only be part of one codon. For example, the code AATT could be read only as AAT or ATT, but not at the same time.
The last rule deals with start and stop codons. Basically, once you begin reading a codon from a specific nucleotide, one must continue reading it by threes until the end. The most common start codon is AUG. UAA, UAG, or UGA are the stop codons. So, the implication of this rule is that any sequence can be read in three different ways, depending on which nucleotide is put first. The three different ways of reading can yield three different amino acids.
Mutations are errors in codons caused by changes in nucleotide bases. Depending on the type of mutation, the error can cause no change or devastating change in protein created. These changes can result in positive phenotypic changes in the living organism, but usually are deleterious. The first type of mutation discussed is the base substitution. This is when one base is substituted for another. There are three main base substitutions: silent mutations, missense mutations, and nonsense mutations. Silent mutations do not change the amino acid created, due to the degeneracy of the genetic code. For example, if UGU is changed to UGC, the corresponding amino acid will still be cysteine. A missense mutation results in a substitution that changes the actual amino acid that is created by the codon. A nonsense mutation is a substitution that actually transforms the codon into a stop codon. This is generally considered to be the worst sort of base substitution mutation because it can really mess up the formation of a protein.
The next category of mutations is the insertion and deletion mutations. The main mutation that correlates to the insertion or deletion of a nucleotide in a codon is the frameshift mutation. This mutation is very profound in its effects, due to it changing every codon in a genetic sequence. It messes up the three codon structure which constitutes code, thus altering the protein that is created by the code.
The last category of mutations are the suppressor mutations. Supressor mutations change the result of an entirely different mutation. There are two types of these: extragenic and intragenic mutations. Extragenic mutations occur outside the genetic code, but has an effect on the amino acid sequence that is translated from the genetic code. Basically, one mutation can negate another mutation, due to the affects of a tRNA mutation. An intragenic mutation comes from within the genetic code. An example of this would be if an insertion of a particular nucleotide was negated by a frameshift deletion of this nucleotide. This book does a thorough job of educating the reader in the basic of the genetic code. It not only defines what the genetic code is, what rules govern it, and what mutations can occur in it, but it discusses how the genetic code is an indicator of evolution. Since all life shares the same four nitrogenous bases, which make up the codons that code for the proteins that make all living bodies, evolution from common descent seems plausible.

Written by Chris Bielke Independent Affiliate GeneWize LifeSciences Direct: 928-261-8247 Article Source: http://EzineArticles.com/?expert=Chris_Bielke