The human genome is the information on the make up of man which happens to be stored on 23 pairs of chromosomes in the human DNA. It is estimated that there are between 20,000 – 25,000 genes and about three billion pairs of DNA base pairs. In 2003 a project initiated by the US Department along with the National Institute of Health partnered with the Wellcome Trust (UK) and other nations such as Japan and France.

There were certain specific goals for this project which were as follows:

.        To find all the possible thousands of genes in the human DNA

2.     To find the sequence of the three billion chemical base pairs that make up human DNA

3.     Provide a data base and store this information

4.     Improve tools for data analysis

5.     Transfer related technologies to the private sector

6.     Address the legal, ethical and social issues that may arise from the project.

This information could be used to track diseases and perhaps find cures.  Although the project (HGP) is complete the analysis is expected to continue for an indefinite period of time. The most important feature of this project not withstanding analysis is still ongoing, is the transfer of the technology to the private sector by the federal government, licensing the technologies and encouraging innovative research by the private sector.  This aided the biotechnology industry and facilitated the production of new products used widely in biomedical sciences. Technology continues to expand and knowledge increase which brings hope of ground breaking discoveries in the future.

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We have all heard how important it is to maintain a healthy diet and to exercise regularly to achieve an overall healthier lifestyle, but many of us have no idea why.  Of course monitoring calories, carbohydrates, and so on can help maintain a healthy weight as well as help those who are trying to lose weight achieve their weight loss goals, but there are many benefits than that.

For starters, when a person actively attempts to diet and exercise regularly, they tend to be conscious about what they eat a  s well as the activities that they participate in.  For example, the person who may have gone out with friends for happy hour a few times a week will most likely indulge in a few alcoholic beverages and an appetizer or two to tide them over.  The problem with this is that alcohol has many empty calories and chances are the appetizer will not be on the healthy side either.  That being said, a person with an active diet and exercise regimen will not necessarily skip the alcohol completely, but they may limit their intake to just one drink that has fewer calories than most like a light beer or a rum and diet coke.

Another way having a healthy lifestyle can change a person’s life has less to do with the person that is living the lifestlye but rather the people that are influenced by it.  Studies have shown that children often follow their parents when it comes to the things that they eat. So, when parents make it a point to ensure that their children lead a balanced diet, those habits will carry on for their lifetime.

 

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Re-Decorate For Slumber

Some rooms are not decorated with sleeping in mind because of too many distractions. Electronics including computers should be removed from the room. Room colors should be calming and not include bright reds or oranges.

Create a Ritual

A simple bedtime routine can help ease your body and mind for sleeping. Decide to read a book, drink some tea or whatever helps prepare you for bed. This ritual should be followed daily and at the same time. A stable bedtime will train the body for sleeping at the right time.

Say No to Pick-me-ups

Limit the amount of cola, coffee and other caffeinated drinks in the evening that keep people awake. Nicotine and alcohol products are stimulants that should be avoided. Some types of fast-paced loud music should be avoided that may alert the body.

Avoid Naps

 

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Persons that can not sleep at night should avoid sleeping through-out the day. If an individual withholds sleep in the daytime, then they may rest better at night. Sleeping at night will reinforce nightly bedtime rituals and set the body’s nightly clock.

Silence Phones

Although we live in a tech savvy nation, it can lead to deprived sleep opportunities. All communication devices should be silenced to guarantee a disturbance-free rest. Most people will respect your request for no correspondence between certain hours.

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Medical science just keeps finding new reasons why smoking is a very bad idea. If anybody in this world still smokes cigarettes, they really do need to get a clue in a hurry, because there is yet another reason why this is a deadly and unproductive hobby to keep up with. Not only does smoking do all of the bad things everybody has known about for 50 years. It also damages the smoker’s DNA rapidly.

If your genes are important to you, stop smoking immediately says one study. Being a smoker is well known to cause all kinds of damage to your lungs, throat and other components of your respiratory system. Smoking has been known to cause cancer for two entire generations, though some people still smoke regularly in spite of all the dangers. While some people would simply sit back and allow these people to continue killing themselves, there is danger beyond the individual level. Smoking causes DNA damage, which could actually result in mutations in the smoker’s children.

While this will most likely not lead to smokers producing offspring that look like the mutants of pop culture, the potential here is frightening. A smoker’s genes are actually undergoing dangerous changes within minutes, as the carcinogens flood their systems. The possibilities of these mutations are as frightening over the long term as they are expensive over the short term. In short, this is just one more reason why anyone who has any concern for either their or their children’s health needs to stop smoking now if they have in the past, and keep as far away from smoke as possible.

Medication can baffle. Specialists can be hard to find. Hospitals and their rules can prove to be challenging too many, and there can be a sense of powerlessness with every misunderstood diagnosis or misread chart. It’s imperative that individuals gain a sense of control with their records. Health care information systems allow that control to be achieved.

Explained simply, health care information systems are online databases that enable users to input specific facts. They are intended as personal storage files, with all relevant details listed and organized. All prescriptions can be noted and all symptoms can be written. Appointments can be scheduled and files can even be made available to caregivers or doctors. Sharing is easy and instant, which ensures that results can be gained without confusion. These systems allow the public to understand their medical histories and chronicle every change.

But directories can only succeed when the information offered to them is current. It’s vital that all individuals update their files as often as possible. Note all concerns, drug interactions, and more. This is to ensure that physicians can provide the proper care and no mistakes will be made.  Choosing these databases offers the public a chance to reclaim control over their health. The facts are relevant and the results are worthwhile.

If your talents lie in the areas of art, you can take up sketching or painting. These types of activities are said to lower the blood pressure, while helping stress levels drop significantly. Producing something with your hands is also a great way to lower stress. Molding pottery or growing a small vegetable garden are two ideas. By being outdoors, you will absorb Vitamin D, which is not only good for you physically, but also mentally. Other more physical types of hobbies include learning different styles of dance. This is a good form of physical exercise, emotional relief and also a good way to make new acquaintances.

If walking is out of the question, there are usually gyms near most neighborhoods. Depending on your budget, you may even be able to hire a trainer to help you know which exercises will benefit you the most.

Reports state that as many as twenty five percent of the population may suffer from scoliosis. This condition is a deformity or curvature of the spine, that may or may not cause discomfort, depending on how badly the spine is curved. With scoliosis, the spine usually either curves in the shape of a S or what is generally called a C-Curve.

Females are more likely then males to develop scoliosis, and most times the cause remains unknown. Although having poor posture may worsen the condition over a lengthy time, it is not solely to blame for a curvature of the spine. Muscular diseases such as MS can cause the spine to be curved over time.

Treatment for scoliosis depends on each individuals case. If the spine is becoming badly curved, a brace may be used to help hold it in a more natural position. Surgery is an option for some patients. In this type of surgery, the vertebrae are fused together to prevent the spine from twisting and to correct unhealthy posture. Although many with scoliosis seek treatment from a chiropractor, research suggests that this may not be a very successful way to treat the condition.

Most physicians will not normally suggest treatment for a very slight case of scoliosis, especially if the patient is not suffering from any negative symptoms, such as back pain. For young children or teens, a back brace may be prescribed to be worn at night to help correct bad posture. Patients can have scoliosis with as little as a three percent curve in their spine and may not realize the condition even exists. For those with a higher rate of curvature, back pain may begin to be a problem. If a parent feels their child may be suffering from scoliosis, the family physician can do several tests to see if it exists, and if so, how far along it has progressed.

Lupus is a disease that affects the body’s immune system, along with affecting the skin, the joints, the blood and often times the kidneys. Because it is an autoimmune disease, it causes the body to attack itself, including tissue and cells. Damage to organs is not unheard of with those affected by Lupus.  Each case is treated in a different manner, due to the fact that some individuals have very slight symptoms, while others suffer greatly.

Of the four different varieties of lupus, the one known as discoid lupus is in general, the one that affects the skin most often. This type of lupus generally appears as a rash that is present on the neck, face and/or scalp. Many patients that have this type of lupus may also suffer from ulcers that develop in the nose or mouth. Sensitivity to light can also be present.

A second type of lupus is commonly referred to as drug induced lupus. This type is caused when the patient has been taking a particular medication, two of which are procainamide and hydralazine.This type of lupus is rare, with only a small number of people suffering from or being diagnosed with it. Thankfully, most patients stop having symptoms shortly after the medication is stopped.

Systemic lupus is one of the more dangerous types of lupus. It tends to affect the blood, the nervous system, the kidneys, the lungs and heart. It may also affect the joints. Systemic lupus affects each individual in different ways. Some may have a flare of the disease, then be in remission for quite some time. Others may have ongoing problems.

The rarest form of lupus is referred to as neonatal lupus, which mainly affects newborn babies that are born to mothers that have systematic lupus. In the worse case scenario, the infant may be born with a heart or liver defect.

Some of the symptoms of Crohn’s Disease include, weight loss, diarrhea, weakness, lack of appetite, bleeding in the bowels and severe intestinal cramping. Depending on where the disease is located in the intestines, the patient may suffer from malnutrition and be extremely underweight, which in turn can cause more health problems. Anemia can be quite common in those suffering from Crohn’s, due to internal bleeding and the inability of the body to absorb much needed calories, vitamins and nutrients from the food they consume.

Ulcerative colitis and Crohn’s Disease are two diseases that cause the patient to have relapses and ongoing medical issues. The two disease’s cause inflammation, which affects the intestines and colon. Over a million people in the United States have been diagnosed with Crohn’s Disease, with a lesser amount being diagnosed with ulcerative colitis.

Recent studies have shown that probiotics may offer as much relief from the symptoms of Crohn’s Disease as the often prescribed anti-inflammatory drugs, without the harsh side effects that most of the drugs have. Scientists are currently trying out a new type of probiotic that is normally found in yogurts and cheese.

Researchers have genetically developed the new version of the probiotic and are currently testing it in patients that have Crohn’s Disease, ulcerative colitis and even colon cancer. When tested in lab mice that had several different types of colitis, the new probiotic was given and the mice showed improvement within thirteen days. In most, the progression of the disease was stopped in approximately ninety five percent.

One such experimental method is referred to as gene therapy. This is a procedure in which genetic material is inserted in to a particular cell to alter the genetic code of that cell. This would greatly influence disease prevention and potentially cure particular health issues.

How is the genetic material introduced in to a cell? The genetic material must be housed and delivered in a carrier which is more commonly known as a vector. The most common vector used in experiments at the present time is the virus. Obviously, the viruses are altered to make them safer for the human and to produce the best health results. In experiments though, there still have been some side effects.

Currently gene therapy is still in the experimental stages and undergoing clinical trial. Approval from several authoritative and established sources, such as the United States Food and Drug Administration must be confirmed before proceeding with this procedure. Although gene therapy is still in the initial stages, it has the potential to improve the health of those fighting disease as well as prevent disease in those who may have inherited traits that make them more prone to particular types of diseases. Medical experts will have the ability to alter or completely replace genes and thus genetic code to manipulate and improve human health.

Although there are some ethical and legal issues associated with such medical procedures, these can be resolved as the results of gene therapy and its implications are better known. Studying the human genome and gene therapy, even with its possible adverse consequences, is definitely worth experts’ exploration and best efforts since its results can better human health and medicine.

What are human genes and why are they important to understand? Genes are the basic biological unit of heredity. Genes can determine simple traits such as eye color and hair color. They also manipulate more complex functions such as how much oxygen is carried in a person’s blood. It is also reported that genes influence and play one part in such things as a person’s over physical strength. Genes, which are located on chromosomes in human cells, are made up of DNA and carry specific instructions for protein production. A human can any where from 30,000-40,000 genes in their physical make-up. Genes (including their specific sequence and activity versus inactivity)along with the proteins they produce determine what a specific cell can or can not does well as what kind of cell it is overall. This means genes are extremely influential to the human body. An error in a gene can mean health problems and disease while normal genes equal optimum health and stronger immunity to disease.

As scientists study genes, their function and relationships, humans will better be able to determine the best way to approach and treat human health issues. They will also be able to determine better errors and disease in plants and animals. The study of genes can alter the future for health and medicine. Genes will play an essential role in improving human life.

Doctors will prescribed medicine that they feel best fit the patient’s ailments, but until the medication has been consumed and has had time to take affect, its effectiveness is not realized.

These and other such procedures take time and effort both on the part of the doctor and the patient.

With the study of the human genome and genomics, the world of health medicine can say farewell to such guesswork. As genes and their relationships to diseases and sicknesses are better known, medical experts will be able to tell exactly from error genes what difficulties may be ailing a patient. For example, if a list of symptoms could mean a wide range of problems, a quick gene test could be conducted on a patient to find out the exact diagnosis.

Not only will the diagnosis process be quicker and more exact with improvements in genomics, but treatments will be gene-tailored to fix the error genes and thus the health issue as a whole. The study of the human genome will revolutionize medicine and human health.

What is genomics? It is the study of genes, which are the basic code in living things that influence character and behavior. While genomics is a broad picture science it includes many fields such as microbiology. As scientists study the relationship of genes with one another and how their environment plays a key role in their function, many important discoveries that will help human life will be made.

What is Bio Technology? This is becoming an ever-popular field and is often mentioned. It is the use of organic material and the use of bioprocesses to produce products. The oldest known bio technology is that of brewing beer, in which grain is manipulated to produce alcohol through natural processes and chemical interactions.

What is the human genome? This is a human’s gene-make-up or the physical genes that compose a human’s genetic code. The Human Genome Project conducted by the United States gave rise to the field of genomics and increasing spotlight to the human genome, as the identification of the wide array of human genes was revealed.

These are just a few simple definitions of vocabulary words circulating throughout the news and scientific conversations. As you learn more about the exciting study of genomics and its affects on the field of science and health medicine, you will have a better understanding and grasp of what it all entails. This will help you make better sense of studies and information relevant to these topics. You can expect to hear more and more on these topics in the future.

Now with the birth of genomics and bio technology, the world of science and medicine continues to move forward at an ever-increasing pace. Individuals and the global community can expect to see continuous break-throughs in scientific research in the human genome.

Currently scientists and experts from a wide range of fields are jumping on the band wagon of new genetic knowledge and findings. For example medical researchers are continuing to pursue the study of the body’s immune system and how it fights diseases. As gene function and their relationships to other genes are better understood, many treatments and potentially cures can be developed to improve individual’s health.

Scientists are also using the ever-increasing knowledge and understanding of genes to better improve crop production. Scientists are making strides forward in research that will assist farmers how to produce a healthier, heartier, more productive crop. Research is also being conducted to find better ways to help forests fight diseases that are common in trees.

These are just a few of the ways the study of genes can help our world.

Many researchers and experts are fast racing ahead with personal and public projects that rely on the break-through findings this landmark study produced. Also genomics is fast-becoming a full-fledged science and field that is and will continue to alter health medicine and many other facets of life.

Many may wonder where this cutting-edge research is being done. As research continues and advancements are made, several locations will play a key part in the discoveries. Below is a short list of Genomic Research Centers both national and international, that the public community can expect to hear and see in the news:

1. Whitehead Institute for Biomedical Research, MIT Center for Genome Research
2. Stanford Human Genome Center
3. University of Michigan Human Genome Center
4. Houston, Texas Baylor College of Medicine
5. Danish Center for Human Genome Research, University of Aarhus, Denmark
6. Sanger Center, United Kingdom
7. Genome Sequence Center, Canada
8. Genethon Research Center, France

As can be seen above, the United States is not the only country enthused by the Human Genome Project’s findings. Many are joining in to continue the work of finding better ways to improve medicine, energy resources, and personal identification through the science of genomics. As the study of genes improves and as experts better learn particular gene function in centers such as though listed above, there will be great advancements made that will assist both individuals and the public at large.

Genomics is the knowledge and understanding of genes and their specific functions on a large scale. Genes are the smallest unit of heredity and fully influence a person’s physical characteristics and thus a person’s lifestyle. From simple traits such as eye color or hair color to the complicated risks of susceptibility to breast or colon cancers, genes have a gigantic impact on human life.

Genomics was born through the Human Genome Project (HGP). This project was launched and sponsored in the United States as a combined effort between the Department of Energy and the National Institutes of Health. This study was conducted to identify each human genes and its role and function. As a result of this information, fields of medicine and science are racing forward in new ways that will alter history. The entire field of medicine is benefiting from this new understanding of gene material. The medical industry is building on the foundation of resources and technology offered through the availability of genetic information. Educating physicians and the public at large about genes will improve the overall health of Americans as medical experts are better equipped to prevent, diagnose, monitor, treat and possibly cure a wide range of diseases and illnesses that now plague the public arena.

All diseases whether a result of heredity or acquired through exposure to environmental factors have their roots in genes. This means that sicknesses can all be detected within the genes themselves. As a result of the HGP, researchers are now able to identify error genes that are the cause or potential cause of illnesses and diseases. This ability to pin point exact “problem” genes will enable medical experts to better approach and address medical and health issues.

Ultimately, through the information now available due to the HGP, disease prevention and the curing of diseases will be possible for the many thousand diseases that inflict humans.

This is an extremely exciting era in science and medicine and it would seem that “the sky is the limit” as they say. Knowing human genome can revolutionize medical fields. Although it is a long journey between the ability to identify genes and that of discovering specific medicines that can treat health problems caused by abnormalities in genes and gene sequence, researchers are on the right path. Already research is being conducted to discover the exact association between particular gene codes and particular diseases.

Bio Tech organizations are speeding forward as they make gene testing available through commercial routes. The purpose of these genetic tests is to discover abnormal genes in those susceptible to specific diseases. This can help in disease prevention or enabling experts to catch symptoms early.

This genetic information is also transforming the drug industry which relies heavily on trial and error. Soon this will be a primitive method of the past. As health medicine transforms from educated guess work to treatments specifically tailored to match genetic make-up. As the treatment becomes more localized on targeted sick areas of the body, it has the potential to increase effectiveness while reducing or even eliminating many of the side affects common in treatments today.

One of the most exciting opportunities will be gene therapy which is using genes themselves to fix medical problems. This has the potential to treat and resolve medical issues derived from genetics or even those acquired through environmental factors. Gene therapy is conducted by substituting or replacing unhealthy genes with normal, healthy ones.

The public can be prepared for great strides forward in health medicine due to the knowledge of human genome.

It also opened doors for potential problems and more questions. With such personal identifying information available, challenges can arise if some seek to use genetic information in inappropriate ways. For instance, should a company hire a potential employee that is prone to a particular cancer and is likely to be less productive over time and cost the business more money through health insurance than another employee? Or can an insurance company increase premiums for those with a particular genetic sequence that is “less healthy” than others with healthier genes?

Thankfully, these and other questions have been resolved and answered in the 2008 GINA legislation (Genetic Information Non-discrimination Act) that is now law in the United States. It is important as advances continue to move forward with genomics and as the public becomes more involved, that individuals have a clear understanding of their personal rights. Be aware of what is appropriate under law and what is not when it comes to your personal medical and genetic information.

Under GINA, health insurance companies and employers are prohibited from using a person’s genetic information as a result of genetic tests as a means of discriminating against them. Insurance companies are not allowed to set policies and prices to a person’s gene code, and employers are not permitted to make hiring decisions based on a potential employer’s genetics. It is also important to note that insurance companies and employers are forbidden from asking for a person to take a genetic test.

Americans can be grateful for advances in human genome without fearing for risks in their personal lives, such as losing health insurance or not being hired for a job.

1.  Genome Research has impacted biomedical research in the areas of molecular biology and has the potential to revolutionize clinical medicine. There will be improvements in diagnosing diseases and discovering those who possess genes that are prone to certain types of diseases. Already finding from the project have assisted researchers looking for the specific genes related to colon cancer, breast cancer, and Alzheimer.

2.  The Human Genome Project will also benefit the current problem of non-reusable energy being the prime resource for energy. The genome research can benefit energy and the environment by using microbial genomics to produce biofuels, or alternative energy resources as well as to create techniques for monitoring pollutants in the environment.

3.  Genomics has also played a new role in fighting crime and in exercising civil justices. Persons suspected of crime can now have their DNA checked to see if it matches clues left at the scene of the crime. They also can aid in exonerating those who have been wrongly accused of committing a crime since their DNA does not match crime evidence.

4.  There are also great benefits to gene research since parentage can more easily be discovered. Genomics can and as it advances further have the ability to establish family relationships and identify specific individuals.

While the Human Genome Project initially may have seemed best suited for specific purposes, the results of the project’s research are and will continue to enhance a wide range of fields and sciences. The benefits will continue as technology advances to address more complicated issues. From medicine to criminal justice to genealogy, the human genome project proves to be a landmark study that will revolutionize the world.

Bio tech has not only been exclusive to drinks though, it has influenced food production throughout history. Since the birth of agriculture, farmers have always looked for ways to improve crop production. This included purposely influencing crops to produce high-quality food through selective breedding. For example, corn farmers chose to breed corn plants that had the desired character traits (i.e. those that produced large ears of corn or those that produced corn with a sweeter taste) to produce the best corn.

Even in Biblical times, selective breeding was used by Jacob to influence the desired character traits of his father-in-laws livestock. If the desired character trait was wool color, it is recorded that Jacob bred those animals which had the desired trait to increase the flocks and herds. Those who depended on their livestock for income have utilized breeding techniques to increase their business.

As time has passed, the demand for bio technology has increased and its uses and purposes have also increased. In WWI, for example, methods in microbiology were used to help the United Kingdom in their manufacturing of explosives for the war.

Bio Technology has also played a key role in the development of anti-biotics. The mold penicillium was first discovered in 1928, and later refined to produce penicillin. In 1940, this antibiotic was used to fight bacterial infections in humans, thus changing the history of medicine.

As the field continues to advance, we can expect bio tech to continue to make monumental differences and change the world for the better.

Whether or not people are hard wired with a predilection toward addiction to substances or behaviors has long been wondered about. As genetic scientists close in on firmer answers, one thing seems clear – therapy can help those who suffer from addictions. For therapy to be effective, it must enable a reduction of the feeling of need to engage in the activity which is uncommonly repeated. That activity can be anything from reaching for a bottle of liquor and drinking a large majority of its contents, to reaching for a pack of cigarettes scores of times per day, or engaging in frequent switching of sexual partners. Any action which is repeated frequently in search of a ‘high,’ which quickly fades and must be repeated to achieve the same effect, is an addiction.

Some addictions are regarded as healthy, such as running, whose aftereffect of endorphin release termed ‘runner’s high,’ provides much of the same in the way of pleasurable sensations as drugs. But for the most part, addictions are not healthy, as they ensnare their practitioners in a cycle of up and down mood swings, ever affected by an external input to the brain.

Therapy can help one to realize what drives them to pursue these stimulatory brain rushes. Whether it’s a troubled childhood or a deep seated fear of ending up living in assisted living facilities, people have reasons for their brains seeking pleasure through actions outside of their control. Therapists are deeply trained people, familiar with the situations that pressure people into addictive behaviors, who can help the addict to pinpoint the exact issue or issues which guide their behavior. With understanding the addict can slowly confront their problems, like a child learning to walk one step at a time. It’s not an overnight process, but in time, addicts can learn to get their highs in healthier, nondestructive ways.

The CSI franchise is one show that relies heavily on the advancements provided by the Human Genome Project. A show about crime told from the perspective of the detectives who investigate them, CSI uses DNA samples taken from blood, fingernails, hair or bodily fluids in nearly every episode. This capability would not exist, either on television or in real live, without the success of the Human Genome Project.

Another television show that exists because of the Human Genome Project is Bones. This crime drama is told from the perspectives of the scientists who are called in to investigate crimes. Since the show typically deals with horribly mutilated or disfigured corpses, the only way to get a positive ID on these victims is though DNA testing and evidence. Not only can DNA be used to implicate suspects, it can also be used to identify victims.

Finally, and perhaps most popularly, Maury Povich’s weekly “who is my baby’s daddy” episodes are exclusively made possible thanks to the Human Genome Project. Now that DNA can be easily and accurately collected and tested, determining the paternitiy of a child is easy and foolproof. Because of the high cost of DNA testing, a paternity test is not for everyone, but those who agree to have one performed on national television have the added bonus of getting their tests done for free.

Although the Human Genome Project has made invaluable contributions to the fields of justice, medicine and paternity, perhaps its biggest impact can be found on television. Thanks to the conclusions made by this project, there is an entirely new and untapped market for television shows which are currently thriving.

Some people are genetically predisposed to specific health problems. Others seem predisposed to health, no matter what they do to their bodies. Human genetics are fascinating, but they haven’t been unraveled enough just yet to answer all of the questions that people have about how human beings work, where they really come from, and why some people succumb to certain diseases while others appear to have almost complete immunity. It’s very important to keep issues of genetics in mind, but also to understand that they aren’t the only thing that makes a person healthy or not healthy. A combination of nature and nurture seems the most likely cause of health or illness in the majority of individuals today.

Another issue that genetics has not yet been able to solve is why some people are more sensitive to pain than others are. There are people who are upset and uncomfortable at the tiniest ache, and others who are seemingly oblivious to anything more than the most aggressive discomfort. Most people fall somewhere in the middle – and there have even been people born who are not capable of feeling pain at all. For specific types of spinal pain, PRP therapy can help but isn’t considered a cure.

Most other pains don’t have a ‘cure,’ either. There are medications that can lessen the pain response, but not actually fix the cause of the pain. It’s necessary to get to the root cause of the pain, so that the problem that’s creating it can be treated. In some people, there is a treatable cause and the pain will go away. In other people, there is no specific cause for the pain and it’s not something that can be done away with. Medications to control it could be required for a lifetime. Further advances in genetics may one day change that.

One of the ways the Human Genome Project has positively affected medical research is by providing us with a link to the past. By being able to study the history and timelines of diseases through various different experiments, scientists are able to see precisely how, when and in some cases why a particular disease may have mutated or spread to the masses. By getting a working understanding of these diseases and epidemics from the past, scientists can better understand and apply that knowledge to the present and future.

Another way the Human Genome Project has helped advancements in medicine is by giving scientists a clear view of the present. By being able to study the genetics and DNA of people with diseases now, as well as the DNA of their children and parents, they can get a good idea of how a disease functions in the present and can therefore better treat it.

Finally, the Human Genome Project helps provide scientists with a link to the future. Not only can scientists break down a disease and examine its precises causes and behaviors, but scientists can also compare the human DNA stucture to that of other animals and living things, such as lab rats. Some animals have similar genetics as humans with higher or different resistancies to diseases. By being able to study the disease in other, similar species, scientists are able to discover breakthroughs that could mean big things for the future of mankind.

Because the Human Genome Project provides researchers with a clear link to the past, present and future, scientists are able to study where a disease is, trace it back from whence it came, and predict the way it will move in the future. Having this information is crucial, and makes the Human Genome Project one of the greatest scientific advancements ever.

Kinetosis is a condition in which a person becomes ill from either motion, the realistic simulation of motion such as scenes in video games, or watching movies with a lot of action. Kinetosis is known by several other names, the most common of them being motion sickness. It’s also called Travel Sickness, and has more specialized names depending upon what activity causes it. Airsickness, seasickness, space sickness and simulation sickness are all forms of kinetosis.

The most common symptoms of kinetosis are feelings of nausea, dizziness and fatigue, sometimes underscored by a headache. If the symptoms get bad enough, the individual experiencing them may vomit. Unfortunately, unlike a case of the flu, vomiting from kinetosis will not lessen the nausea any. As such, it’s quite possible to vomit more than once from the same case of motion sickness.

There is no official scientifically proven reason for what causes kinetosis. However, the commonly accepted speculative reason is that when your brain sees something that indicates motion but your inner ear does not feel the shifts in the fluid associated with balancing and moving, your body gets mixed signals about whether or not you are actually in motion and the result is feeling ill. It can also work in reverse–your body can be moved around so that your inner ear detects the motion, but if your eyes are covered or viewing what looks like a still image, your brain gets mixed signals that it is both moving and holding still.

On average, around 65 percent of people typically experience kinetosis in moderate to extreme motion situations, such as riding on a boat on choppy water or riding on theme park rides. Around 30 percent are more sensitive and can get ill even floating on calm waters. It is impossible to get motion sickness if you have a genetic condition that prevents your inner ear system from functioning.

The Human Genome Project gave scientists a working roadmap of human life. One area this is particularly helpful for was the area of disease prevention, diagnosis and treatment. By studying the genes that cause certain diseases and how they behave inside the human body, scientists are now able to better predict, prevent and in some cases pre-treat the disease before it even presents itself. This sort of advancement in medicine happens once in a generation, and the HGP provided enough information to last for years to come.

Another area where the study of DNA has become crucial is the study of crime forensics. DNA has become one million times more incriminating and accurate that fingerprints or other types of evidence. Because a person’s DNA is specific to them and only them, finding DNA at the scene of a crime is about as close as it gets to being caught red-handed. This sort of criminal acccuracy would not have been possible without the Human Genome Project.

Finally, the data collected in the Human Genome Project has served as the inspriation and cause of many of today’s leading solutions in the area of biofuel. By studying the genomes of plants and other naturally occuring living organisms, scientist have been able to make advancements in the way we power our cars, businesses and lives.

Although the Human Genome Project sounds like science fiction, or like research that has little practical application, nothing could be farther from the truth. By studying the human genome, scientists have been able to better understand diseases, fuels, and criminal evidence, and advancements in those fields as well as many others continue even today.

In case of buying Cialis and other drugs related to sexual problems, often people feel uncomfortable to go to their local pharmacies. That is why, they keep on ignoring their ailment until it become a real problem for them. People often forget that this is the era of technology and that they can buy their prescription drugs online through online pharmacies.

While Googling or just searching the internet one can find thousands of online pharmacies selling Xenical and other prescription drugs, but it is a good idea to buy it from reputable and trusted online pharmacies, because on internet you are more like to find unauthentic peddlers of medication.

Although, online pharmacies are contributing to help people and have made it easier for them to buy prescription drugs at low cost in few clicks but many people are abusing themselves by buying non prescribed drugs that are actually not safe for them to use.

People must understand that these online pharmacies are there to help them. They should be responsible enough to take care of themselves and must go to the doctor for a prescription. And if, they really know that they need to buy a medication then they can either get it from a local pharmacy or more conveniently from an online pharmacy.

We have heard the stories of those shunned from the sun who become desperate for vitamin D.  Ultraviolet rays from the sun, like a host of foods such as cereal, milk, fish, and cheese, help us maintain healthy quantities of both phosphorous and calcium. Our blood relies on vitamin D to promote strong bones and avoid conditions like osteoporosis and rickets. There are plentiful sources to help us avoid vitamin D deficiency and one of them is sun exposure. But as much as we’ve heard about vitamin deficiencies, like that of vitamin D, we know that skin cancer is ever prevalent with over-exposure to the sun as the source.

It’s true that our skin requires up to 15 minutes of sun per day to acquire the daily recommended dose of vitamin D. It then makes it way to our liver and kidneys, active in protecting our bodies from bone growth-inhibiting microbials and bacteria. So if you love to frolic in the sun, whether it’s poolside or on the beach, taking jogs by the river or hiking all weekend long, you need to protect your skin from over-exposure to the sun and vitamin D. Toxic amounts of this vitamin can lead to not only sunburn or dangerous cancers that could be life-threatening, but anemia and frequent episodes of constipation, vomiting, and heart palpitations.

While some of these conditions sound worse than others, the truth is, they all could be attributed to your imbalanced absorption of vitamin D both from sun exposure and from a diet lacking this vital nutrient, and can lead to long term detriment to your overall health. To healthfully control your daily vitamin D dosages, always put sunscreen between the UV rays that produce vitamin D and your skin, as well as take the recommended amount of supplements to be sure your body is equipped with enough vitamin D to avoid poor bone health.

In the case of ferals, these factors are absent, resulting in multiple deficiencies of domestication, devoid of motion, sound, laughter, and personal development and integration into some sort of community. Isolated and abandoned, these children are forced to equip themselves with cognitive and defensive modes of living, including a need to make sense of their claustrophobic environments, including the ones in their own heads.

Pigs and monkeys and other animals exist within feral conditions and grow up among these types of seclusive populations. The neutering and vaccination schemes imposed by biotechnology initiatives, especially when it comes to the nuisance of feral cat incidences, cannot be adapted for approaching the issue of human feralism. Instead, health medicine as a discipline is interested in analyzing the affects of both biological and conditions imposed by nature or abuse on the feral humans. The interest remains in assimilating them into the world by focusing on language, health, and social conditioning.

While the process is slow, most health professionals agree that critical strides can be made for a feral child in terms of their adjustment to society. This adjustment involves verbal, numerical, and analytical reasoning skills that may have been limited by their alternative upbringing and exposure to collective living. The holistic experience of transferring from a feral life requires the hands-on assistance of trained and compassionate skilled workers.

Finance is a complicated industry. Especially with modern times in financial security, the layman has learned about how to strategize within technically sophisticated terms that they would otherwise dismiss as irrelevant to their lives. The world of business within the confines of investments, portfolios, and performance statistics seem outside the realm of ascertaining. And yet the values we all seek to understand in order to better our individual and unique economic situations have become more clear.

Even with our pedestrian views on how to save and maintain budgets that will allow us to experience the lives we envisions for ourselves, we often feel inadequate in our capacities for understanding how the rest of the world manages their money. This is an honest thought and anxiety. The truth is, if we maintain our own ideas on how to accrue and save our earnings, we are doing a disservice to the longevity of our financial security and freedom. Little do we know, at times, in our lives, that other people will rely on us for our sound and practical economic decisions.

We invest every time we put money down in order to receive something back. Our worldly view is that the external world will protect us in our unique and individual ambitions and yet this does not happen when we indulge our ideas on what is worthwhile. This both applies to financial and other entities. We encounter liabilities and in turn, learn from their effect on the long-term goals that drive our professional and personal endeavors. We need to learn how to ask for help, how to loan and borrow and understand the difficulties involved.

The financial transactions that we decide to engage in are indicative of our appetite for success, however we define that term. Finance is not a world in which everyone can survive, but it’s a world where everyone is invited to take their earnings and learn how they can maximize the work involved to better themselves.

This week, scientists from the GIANT consortium reported the discovery of eighteen new regions on the human genome that contribute to obesity and thirteen other regions that play a role in determining the waist-to-hip ratio. These studies combine information about the genome along with the body mass index and waist-hip ratio using more than one quarter of a million study participants from North America, Europe and Australia.

Waist-hip ratio is a predictor of health consequences regardless of overall weight. The body-mass index may be associated with the risk for obesity; scientists are looking for genes that may indicate increased susceptibility for obesity. Since obesity is associated with multiple health conditions such as heart disease and diabetes, determining genetic influences may give scientists and doctors different opportunities to lower the prevalence of obesity.

One of the important findings of the trials is that so many genetic loci for waist-hip ratio were found that were not associated with the body-mass index. These loci appear to be associated with the development of adipose or fat tissue while body-mass index genes appear to be related to the role of the nervous system in determining satiety or fullness. This shows that there are separate biological processes and distinctions in the regulation of a person’s weight. The waist-hip ratio genes were also found to be indicators of heart disease, diabetes and death – these indications did not have a specific association with overall obesity. The waist-hip ratio genes were also more prominent and have a stronger effect in women than men.

The GIANT consortium includes the company deCODE which has discovered genetic risk factors for many common diseases and hundreds of academic institutions. The success of these studies demonstrates the importance of collaboration between different organizations in the research of the human genome. These two studies are published online at the Nature Genetics journal website.

The genetic marker KIF6 has been found to not be predictive for coronary artery disease in a large replication study.

Researchers found in the study that mutations in the KIF6 gene were not associated with the development of coronary artery disease. Because this was such a large study, the researchers expected that if there was a connection between coronary artery disease and the genetic marker, it would have been found during the analysis.

The researchers looked at 19 case-control studies that included 17,000 cases and 39,369 controls with the vast majority of the patients being of European descent. There were some African Americans, South Asians and Hispanics included in the analysis. The researchers found that none of the 19 studies analyzed showed an higher risk of coronary artery disease in people with the 719Arg allele mutation of the KIF6 gene when compared with people without the allele. There were no associations found in the various ethnic groups as well.

Mutations in the KIF6 gene had previously been shown to be associated with an increased risk of coronary artery disease. Other studies found that patients who would benefit from treatment with statin medications to lower this risk.

The earlier studies which found the associations with the KIF6 gene and coronary artery disease were funded by the biotech company Celera which was a key player in the Human Genome Project. Celera issued a press release disputing the findings of the most recent trial in that the new data does not disprove the association with coronary artery disease.

The scientists associated with the current study acknowledge that the results of the study may be limited by the fact that they evaluated only non-fatal cases of coronary artery disease and that if the mutation is more related to fatal effects of heart disease, it would not show up during the evaluation. However, these researcher stand by their findings and suggest more research is needed.

Researchers in England are close to developing a test that can predict the onset of menopause. This information could allow women more control over family planning and could be an alert for women who delay childbearing but then find that they cannot have children.

Scientists from the Institute of England and the University of Exeter Peninsula Medical School studied particular genetic variations that are linked to early menopause before the age of 45. More than 2000 women who had suffered early menopause participated in the study; these women were compared to 2000 other women who had not undergone early menopause. Four genetic variations were found to account for some but not all of the risk of early menopause.  The researchers found that genetic variations on chromosomes 19 and 20 were involved in menopause. Changes at 19 led to a decrease of age of menopause of 3 months while changes at 20 may lead to an increase in age of menopause by 11 months. Women with early menopause were more likely to have each of the high-risk variations.

These findings are the first step in developing a genetic test that can help women that may be impacted by early menopause. The average age of menopause in Caucasian populations is 51 years of age; about 5% of women experience menopause before the age of 45. Women who undergo early menopause are at higher risk for heart disease, osteoporosis and infertility as well as a lower risk of developing breast cancer. Early menopause has a significant impact on health.

Women experience a decrease in fertility about 10 years before menopause begins.

This was part of a larger study with more than 100,000 females in the United Kingdom which looked at causes of breast cancer. Over the course of the study, the researchers hope to identify genetic, lifestyle and environmental factors that can influence the development of breast cancer.

Since the human genome was first sequences 10 years ago, the study of genetics and the brain – also called neurogenetics – has been very active. Prior to that, there had been some important discoveries like the genes that cause Duchenne muscular dystrophy and fragile X syndrome. Some of the later finds from the sequencing were based on these findings. The investment in this research has already made a large impact on health — not only in the diagnosis of these disorders and but also the outlook for the members of the families affected by them.

The discovery of treatments and cures using the genetic findings has not quite kept pace with the speed of the discovery of important genes but the increase in understanding of neurobiology and its processes are creating fertile ground for future discoveries.

Another recent genetic discovery is the new gene CYP2E1 which is located on chromosome 10. This gene has been found to be related to a person’s sensitivity to alcohol and an increased risk of alcoholism. Scientists and physicians may be able to use this gene as a predictor for this condition.  The study included 237 people who were college students and who had an alcohol-dependent parent. These findings lend credence to the thought that alcoholism can be inherited.

This finding is another example of an improved understanding of human neurobiology and diagnosis of conditions. Further research in neurogenetics should continue to include collaborations between industries, governmental agencies, academic institutions and research foundations. Investment in studies that look at the function of the normal human brain will lead to answers for childhood disorders and information about the aging brain. Understanding the adult brain can pave the way for additional treatments and health care moving forward.

At Yale University, researchers have identified a gene that may trigger clinical depression.

The gene MKP-1 may be a primary or contributing cause to the factors that lead to depression. The researchers looked at the brain of 21 decreased people who had been diagnosed with depression through genome scans. They then compared those results with the brains of 18 people who had not been diagnosed with the disease.

The gene, MKP-1, increased more than two-fold in the brains of people with depression. This gene interferes with a pathway that is important to the survival of neurons in the brain. The findings in the brains of the subjects led to studies in mice. When this gene was impaired in mice, the mice became more resistant to stress but when it was activated, the mice showed the signs and symptoms of depression and other diseases.

There are other scientists who suggest that this study is flawed and that this may be a gene for one type of depression but not for all. There has been other evidence that depression has some genetic origin but there are other factors in the development of the condition. These genetic findings may be useful but not applicable to all people with the disease.

Depression affects nearly 16 percent of Americans and costs the country over $100 billion every year. Trying to pinpoint the cause of depression has been challenging for scientists. Current antidepressants work in different ways for different people and for up to 40% of people, these medications may not work at all.

Other researchers suggest that this particular finding may lead to a new line of therapy for people with depression. The goal of this experimental medication would be to inhibit the MKP-1 gene in people; this is an early step in a potentially multiple-year odyssey to a drug therapy through a pharmaceutical or biotech company.

It is a little-understood reality that a woman’s shape is determined long before lifestyle choices begin to have any impact. A recent study by world-renowned scientists and researchers at the University of Edinburgh has identified 13 new regions in woman’s genes that are linked to women’s body shape.

Interestingly, many have a greater influence on women than on men, determining such important factors as where and how much fat will be stored. These so-called "apple" or "pear" genes are also quite influential in risk factors relating to a woman’s health throughout her life.

"Apple-shaped" women with fat in the waist area have proven more susceptible to such health conditions as Type-2 diabetes and heart disease. In contrast, women with "pear-shaped" bodies (wherein fat is storied in the buttocks and thighs) have been shown to have a decreased risk against high-blood pressure, diabetes, and other health threats.

These researchers were able to locate these DNA gene variations after extensive data-pooling from multiple international genetic studies which involved hundreds of thousands of people.

Of the thirteen gene regions found to have impact on the distribution of fat to either the waist or the hip areas, seven had a much bigger impact on females than on their male counterparts. That being said, these findings to date can explain around only 1% of the variations in this hip-to-waist ratio. Even so, they clearly point to important and influential biological mechanisms the influence the storage of body.

Genes that are central to the regulation of blood fats, insulin, insulin resistance (meaning the inability of the body to properly respond to insulin) and levels of cholesterol are all considered important in the way the body manages fat.

Scientists are now actively pursuing research in the field of drug therapies every day.

All this is further confirmation of the vital importance of the research being done on the human genome and other advances in biotech at the cusp of the 21st century.

An important development in human genetic research has recently been announced. Scientists have determined that there are certain genes that make malaria-infected mosquitoes resistant to various insecticides.

These researchers determined that there is a specific gene that enables the parasite which causes infection to resist the common treatment of a plant-based remedy for malaria. As a result of this discovery, scientists are hopeful that they can influence an effort to accelerate the war against this terrible killer. Malaria is one of the leading killers in developing countries around the world.

In the past, this plant-based therapy using artemisinin has worked when other remedies like chloroquine have lost their effectiveness. The discovery of this malarial resistance to artemisinin is leading to increasing concern over a possible decrease in the world’s ability to fight and control outbreaks of malaria.

By identifying this gene, scientists believe that further studies will occur to help develop and implement new drugs and therapies to overcome this treatment-resistant parasite.

The study used emerging biotech tools to scan the genetic fingerprint of this parasite as found in infected rodents. The technology has given scientists and researchers the ability to quickly identify the genes that are enabling parasites to resist current drug treatments.

It is estimated by the World Health Organization (WHO) that there are between 300 to 500 million cases of malaria world-wide each year in over 90 different countries.  In 2008 alone, malaria alone caused nearly a million deaths, many of these in Sub-Saharan Africa. Even more tragically, a high percentage of these deaths occurred among children.

Malaria is caused by a parasite transmitted by certain strains of mosquitoes. Symptoms are usually manifested in the form of a high fever, followed by pain in the neck and back. This progresses to more serious symptoms such as convulsions, uncontrollable shivering, and vomiting. Although there are medications that deal with many of these symptoms, there is still not currently a vaccine.

In what may be truly groundbreaking news, scientists have recently discovered genes that apparently play a role in the human pre-disposition towards obesity. In the first of two reports, researchers determined that there are at least 18 gene variants that have some link to obesity. They also believe that 14 additional  gene variants could also play a role.

In a second report by the same group of researchers, at least 13 gene variants were found that impact how fat is directed to either the belly or thighs.

Scientists cautioned that these studies are preliminary and are subject to peer review and further evaluation. One of the research team leaders indicated, for example, that the genes cannot as yet be used to predict whether someone will actually become obese or not. They have only identified the genes that they believe to be directly related to obesity and to the storage of body fat. How exactly they work to develop a vulnerability or resistance to obesity is not known at this time.

However, scientists also stressed that by knowing the biology they are far more likely to invent a more effective preventive strategy for obesity. These discoveries will lead to additional breakthroughs, with the very real possibility in the next several years of there being new and powerful obesity interventions as a result.

It is important to also note that discovering that someone has these gene variants is not the same as saying that that individual will be obese. In fact, predicting that someone will suffer from obesity based on these variants alone has about the same odds as flipping a coin. But as is often the case, every step forward in the study of human genetics is an incremental one, and scientists are confident that this is an important advancement in their efforts to better understand the underlying factors in human obesity.

Researchers believe that the human brain is capable of "rewiring" itself after a hearing loss through a potential improvement in vision. They’ve determined that the parts of the brain dealing with locating sound sources teach themselves to do the same thing using vision when hearing has been lost or decreased.

This potentially important discovery came about from a study done on cats – specifically because they are the only animal besides humans that can be born deaf. It has been proven that people who are born deaf or blind often report that other senses appear to be enhanced. Experts believe that losing a sense early in life allows the human brain more time to adapt, due to the fact that the nerve connections are still being made.

In this study of deaf cats, these scientists discovered brain regions that would normally handle audio input somehow rearranged themselves to instead receive visual stimuli. As a result, these deaf cats (and presumably deaf humans too) would have enhanced peripheral vision, or the ability to observe moving objects.

This is just the latest confirmation in human genetic research regarding the remarkable adaptability of the human brain. Biotech discoveries seem to be occurring almost daily, many of them dealing with what have for years been the mysterious workings of the brain. The brain is hardwired to compensate for lost senses with enhanced capabilities in other senses. For example, a deaf person would be very benefited by seeing a car coming from far away with their improved peripheral vision, since they’re not able to hear that car approaching from the side, something that a hearing person takes for granted. This is also true of their ability to sense how quickly that car is approaching.

As scientists continue their studies of the human gene, including the significant work ongoing as part of the Human Genome Project, they are confident that breakthroughs such as this one will become more and more common.

A snail is just a snail, right? According to recent scientific discoveries in Germany, maybe not. Biologists there have discovered a way to reshape the body design of snails, with implications for humans as well.

The results of a study done at Tubingen University have found that exposing snails to platinum leads to formation of an internal shell instead of the usual outside version. Apparently there is a time period of only a day or two during which the genetic makeup of a snail determines whether or not a shell will grow on the outside or not. By reprogramming the direction of the growth of the shell during this short time-frame, scientists have been able to prevent the development of the usual convoluted shell common to most snails. Instead of this formation, a small hollow, cone-shaped object forms internally, similar to a squid.

With only a brief exposure to platinum ions, the fundamental biological makeup of the snail is permanently altered. This genetic discovery came about during a study of the toxicity of different metal ions, including platinum. This ion is often released into the atmosphere through automobile catalytic converters. When snail embryos were exposed to these ions within the specific time frame of the snail’s developing an external shell, the process was altered and the internal shell was instead formed.

Genetic mutation itself doesn’t take place. There are not any mutations other than the change from an external to an internal shell. That being said, scientists do believe that gene activity regulation is being modified. The team of scientists plan to continue their research into gastropod development and genetics generally. They are confident that a process of "macromutation" is taking place within the snails, and want to expand their research to see if platinum-based gene activity is occurring during a gastropod’s early embyrogenisis. This report was recently published in Evolution & Development by two German geneticists, based at the Institute for Evolution and Ecology.

In a biotechnological breakthrough, structural biologists in La Jolla, California have recently discovered the three-dimensional structure of a molecule that they believe is involved in the development of many forms of cancer, as well as the HIV infection. The team of scientists, funded by the National Institutes of Health, believe that this high-resolution structure could shed significant light on how the cancer and infection-causing molecule functions. More importantly, they believe this discovery could lead to breakthroughs in how to control its activity, with the potential to lock out HIV and cancer from the body.

The molecule is a part of the large family of proteins in the human body called G-Protein Coupled Receptors or GPCRs. These molecules are found spanning a cell’s membrane and function as transmitters from the exterior of a cell to its interior. These GPCRs assist in the control of virtually every process of the body, including light perception, cell growth, and hormone secretion. Remarkably, more than half of all current drugs on the market, both prescription and over-the-counter, target these critical receptors.

Although scientists and genetic researchers have been studying this particular receptor for decades, they’ve only been able to guess at what it may actually look like. With this remarkable discovery of its structure, scientists believe they will now be able to push ahead with exciting advancements in drug therapies, leading to new vistas of possible therapies and cures for a wide range of human ailments and diseases.

This discovery came about as the result of taking “snapshots” of the CXCR4 protein, using a structural determination method called X-ray crystallography. In order to understand how molecules native to the body might bind themselves to cells and begin communicating information within them, as well as how potential drugs might interact with it, they X-rayed the CXCR4 when it was bound to known inhibitors of its activity. After three years of testing, they were able to create five high resolution, three-dimensional images.

Through the Human Genome Project, scientists hope to learn more about the billions of individual genes that are found inside every person. While the human genome has a specific structure that we can begin to understand, how those genes react with each other and how they affect individuals varies from person to person. By learning more about the human genome, scientists hope to teach us more about ourselves…both the good, and the bad.

Many scientists believe the “addiction gene,” Tetrahyroisoquinoline (or THQ), is a reality. Some people who inherit the gene go on to act out addictive and potentially self-destructive behaviors. If you are addicted to cigarettes, you may simply be acting out a hereditary instinct. There may be no way to change genetics (at least, not right now), but there is a way cigarette addicts can get help.

Electronic cigarette cartridges look like a 5-pack of cigarettes, a mini version of what you might buy in a convenience store. Electronic cigarettes also have another major difference that distinguishes them from store-bought brands: they won’t kill you. Unlike cancer-causing cigarettes, which are stuffed with chemical agents, electronic cigarette cartridges contain only a small amount of nicotine and water vapor. Smokers will puff away on a cigarette that looks and feels just like the real thing, but they won’t be compromising their health by doing so.

Cigarettes are dangerous; if they weren’t, every single pack wouldn’t carry a warning from the Surgeon General. Addiction may, in fact, be a genetic trait, and the Human Genome Project may be successful in further isolating and identifying the problem. In the meantime, turn to products that will help you kick the habit, and start a new chapter in your life.

In spite of governmental attempts to determine what to do about the significant and expanding problem of herbicide-resistant weeds, at least one proposal is no longer being considered: Restricting how farmers use the biotech crops that scientists believe are linked to the problem.

Scientists and biotech researchers believe that farmers’ over-dependence on the the Roundup herbicide has led to this increased concern over herbicide-resistant weeds. For example, biotech crops like soybeans are immune to Roundup, leading to many farmers using it exclusively for weed control due to its effectiveness and reliability. The weeds growing in soybean and other immune crops have been shown to be increasingly resistant to Roundup, leading to a call for regulation of the popular weed-killer.

For now at least, the USDA has no plans to impose controls on the use of these biotech crops. One expert on the herbicide-resistance issue believes it’s far too late for government intervention anyway.

The deputy undersecretary at the USDA,  Ann Wright, recently told a House oversight committee that they are committed to protecting the ongoing and unrestricted usage of genetically engineered seeds, believing that they are a critical tool for farmers in addressing major global issues such as hunger and disease control. Ms. Wright testified that limiting the usage of herbicide-tolerant crops would force farmers to return to older, more costly, and less environmentally-friendly methods of weed control.

A biotech scientist at Iowa State University supported this theory, stating that restrictions of Roundup and other herbicides would only delay the development of weeds, not prevent them from growing. He believes that the best solution is to persuade farmers to stop relying on Roundup and to instead use other herbicides and non-chemical solutions such as crop rotation and area-specific cultivation. He acknowledged that this is a hard sell to farmers because the Roundup-resistant crops they rely on are popular precisely because they allow them to keep the weeds out of their fields with a single chemical.

Since the completion of the human genome project, genome research in the area of plants has increased exponentially. One area of great developmental interest is in the area of biofuels. Biofuels are portable energy sources that are compatible with the existing infrastructure of petroleum based transportation. Because of the focus on becoming a greener planet and the phase out of fossil fuel dependence; researchers are moving quickly to develop plants that can serve these purposes.

Food crops have seen some progress due to genetic engineering in recent years but energy crops have not been as successful. For energy crops to be most beneficial they need to have high growth rates, grow in varied and difficult climates, and break down easily into their basic sugars. Scientists are also studying how plant enzymes and insects like termites to speed up the breakdown of biofuel producing plants. This is important because until now breaking these plants down has proven to be costly and time consuming.

Presently, ethanol seems to be the biofuel of choice, but researchers are looking to the future and for a fuel that does not have the same drawbacks as ethanol such as: the requirement for large quantities of water and low energy output per gallon compared to petroleum products. They are currently working on a product called butanol that is a better alternative but still needs work.

It is a complicated biotech challenge to engineer the vanguard marriage of microorganism and plant genes that will optimize the production of biofuels in the coming age. Progress is being made at a great rate and much of the credit goes to what was thought by most to be health medicine research to start, human genome research has led to plant genome research that will eventually and most assuredly lead to a cleaner produced and burning fuel product for the world. Despite the original goals of genome research it is now a growing and important part of biofuel futures.

Cancer affects millions of people the world over. There are over a hundred types of cancers that affect various parts of the human body like the lungs, jaws, blood, breasts and prostate. Cancer Genome research aims to find ways to beat cancer at the root level. However, as the saying goes, prevention is better than cure. Considering the number of people suffering from cancer, it is obvious that modern day lifestyles are encouraging the spread of the disease. There are several day to day habits that we may think as normal but go a great way towards causing cancer. These include our dietary habits, physical activity level, cosmetic products we use etc. Also, habits such as smoking and alcohol consumption have a huge impact on the risk of cancer.

Smoking tobacco products greatly increase the risk of lung cancer in a person. This is the reason why tobacco products like cigarettes and pipes carry a health hazard warning, made mandatory by the law. Billions of dollars are spent every year by consumers buying tobacco products. Nearly as much money goes into research of products that help smokers quit smoking reduce the risk of cancer. There are several such products already available for purchase in the market. These include chewing gums and patches that release nicotine in controlled amounts, helping the smoker cope with withdrawal symptoms and gives him/ her a better chance at quitting smoking. Another such product which is fast gaining popularity is the electronic cigarette. These vaporizing devices release flavored liquid with low nicotine or zero nicotine. They look just like a cigarette and work like one too, giving a smoker the psychological satisfaction of smoking a real cigarette. People can buy electronic cigarettes online as well at most health stores. Using alternative products go a long way in preventing cancer and helps chain as well as passive smokers live a healthier life.

Thanks to advances in the study of human genomes, health medicine and insurance premiums may never be the same. Scientists are studying the DNA of the world’s oldest individuals and have pinpointed certain genetic characteristics that lead to longevity. Soon a test may be available that would tell a person if they contain the genetic predisposition to live 100 years or more.

Scientists have been looking for clues to healthy aging and research has shown that in most developed countries most people live around 80 years and age continues to go up due to health medicine advances, better nutrition, and public health. These studies are targeting and researching the genes of those who live decades beyond this to see what characteristics they have in common genetically. So far, scientists have pinpointed 150 genetic markers that when taken together are linked to extra long life. One specific gene, when present, can triple an individual’s chances of living past 100.

These genes and the manner in which they interact is of course a very complex study. The study of specific genes that help the body to respond to disease, famine, and other physical and environmental stressors could play a role in teaching us more about ways to ward off diseases and other effects of aging in the future.

This kind of information is tantalizing and provoking especially for health medicine research, but what are the social consequences of making this sort of predictive test available to the public and or individual? These genome may reveal more information that many want or need to know. For instance, how would a person make life decisions regarding health care, retirement, life insurance, etc., if they knew they were likely or unlikely to live a very long life? Would life insurance and medical insurers exploit or deny coverages based upon genetic predisposition?

As biotech advances continue to reveal more information about the human species, more questions are raised about the social implications of such powerful and no less life altering information.

Biotech engineers have sequenced the first dog genomes. Now they will be able to check pedigree by simply sending a mouth swab to the lab, but the benefits go beyond mere pedigree purity. Greater understanding of canine disease will hopefully reveal new health medicine advances for diseases that humans have in common with dogs such as cancer and diabetes.

The first breed of dog that scientists attempted to map was a standard poodle, but it was not a complete map. Now they have successfully mapped the complete genome sequence of a boxer breed and poodle. Not only can they compare the two breeds but they can compare these dog disease genomes to those in humans. The dog genome is proving to be a great model for study of genomes because of the selective breeding, and each species ability to adapt and take on molecular changes that make them more resilient or susceptible to disease.

Disease genes in dogs are similar and different from those in humans. They are similar because the same mutated gene causes the disease in dogs and in humans, the are different in that mutations in several different genes can cause a disease in humans, but with dogs it only takes a single mutated gene to cause the disease. Genomes in dogs contain over 19,000 genes and a great number of them can be matched with a similar human gene.

Because dogs have been selectively bred for many years, their genes are easy to pinpoint certain diseases. We already know that certain breeds are more likely to have disorders such as cancer, blindness, diabetes, and other diseases. Additionally, since purebred dogs populations have pedigrees which have been traced for generations scientists can access detailed breeding and relationship information. This speeds up the research process a great deal.

The human genome project is not the only research being done that can lead to health medicine breakthroughs and advances. Apparently, dogs really are man’s best friend in more ways that one.

This technique requires the researchers to hold a test tube over the blowhole of the mammal to collect the excretions. Many captive dolphins have even been trained to exhale on cue. Then researchers took blood samples and compared them to the collected blow. The samples were identical and therefore proved that dolphin blow is just as effective as a test sample as the actual blood. This research application has been taken into a wild population in Australia and proven to also be successful in the wild.

Why would a viable and less invasive mode of DNA collection be important for health medicine? One reason is that the dolphin brain is of great interest to human genome researchers because it is the second largest in mass to the human brain based upon body size. Their brains are large and complex with personalities and behaviors that rival that of higher primate species. Scientists have often marveled at the dolphin’s intelligence and unsurpassed intuition when encountering their human counterparts.

The ability to easily collect DNA information from these amazing creatures opens the doors for comparative studies that just might shed light on how the human brain functions and malfunctions which could lead to insights and cures for brain and personality disorders in humans.

Earlier this year, Africa added two sets of fully sequenced human genomes to the list of donations. The DNA came from a well known civil-rights activist and a tribal hunter-gatherer. These two men live lives and in environments that could not be more different and their samples were different indeed. These samples are important to researchers as they attempt to study where humans originated in Africa and which parts of populations were involved in migrations out of Africa. Scientists want to understand present diversities and track human evolution throughout time and development of diseases.

Some drugs designed to treat Europeans do not respond to the genetic makeup of Africans. This is due to the very diverse genetic patchwork that makes up the country. For example, certain tribes in Africa are more susceptible to Tuberculosis than the rest of the population and are unresponsive to the European drugs. Researchers hope that gathering more genomic data will eventually assist with the development of drugs that will work in these populations. Until this year none of the large human genome projects have been targeted at minority populations despite scientific interest.

Scientists have found the genomes specifically tantalizing as they revealed certain characteristics or adaptations that were most likely environmentally influenced over the course of time. For example one gene is linked to faster sprinting abilities and yet another that helps the kidneys to reabsorb chloride ions; both characteristics would enable a greater chance of survival in the desert environment where they have lived for generations as hunter-gatherers. On the downside, they lack certain genes that would protect them from certain diseases because they were so isolated they never developed them. As the country continues to encroach upon them they are exposed for the first time to illnesses such as malaria.

The few samples that scientists have from Africa only scratch the surface of the information they need to see the whole picture. As the cost of sequencing goes down and genome technology increases they are hopeful that they will be able to sequence a greater number of the diverse African population soon.

A huge health medicine breakthrough may be taking shape as the result of a a very tiny insect. A revolutionary finding in the common fruit fly could lead to a greater understanding of how the human brain learns and retains memories. Biotech scientists have identified a new gene that will eventually revolutionize how we treat those who cannot learn or remember. This gene may function similarly in humans and lead to treatments for neurological disorders such as Alzheimer’s. This breakthrough is exciting researchers worldwide because it marks the first time that a memory and learning gene has been discovered outside of the normally studied and typical learning pathways in the flies.

This study is unique from most animal genome studies where there are no recognized parallels to human genomes. Fantastically, in the case of the fruit fly genes have already been closely linked to those of humans. Previously, scientists pinpointed a shared gene between the flies and humans called the dunce gene, which in humans indicates a predisposition to schizophrenia. By taking the studies of fly genomes a few steps further researchers hope to help find answers to diseases of the brain including Alzheimer’s and other learning and cognitive disorders.

Since fruit fly genes are known to be found in higher organisms such as humans they can provide insights into the treatment of human brain disorders. Scientists are still in the early stages of connecting the fly memory genes and the human disease, but much of the information already obtained can provide valuable insights into human brain disorders. In the long term it is safe to bet that these discoveries will help in the development of drugs to treat neurological disorders and diseases like Alzheimer’s.

Although this is fundamental research and cures are not likely in the very near future, studies continue to understand brain functions such as learning and memory in human and in the fruit fly. So, next time you say, “Shoo fly, don’t bother me!” Remember you have more in common with the tiny insect than you once thought.

The health medicine community acknowledges the role that genetics plays in obesity but urges those who are obese not to resign to a fate of being fat simply because of their family history. Studies have been conducted on individual predisposed to obesity to see if the genetics can be overcome by changes in environmental factors and they proved that there is indeed hope for this unwanted inheritance. The studies have indicated that obesity can be reduced by almost fifty percent with increased physical activity. These findings fly in the face of the idea that people are destined to be fat no matter what they may do.

The study also revealed that for those without “fat genes” exercise did not produce as profoundly positive results as it did in those predisposed to obesity. In other words, those who are hard wired to be fatter can get more from exercise than their skinny counterparts.

The next question raised is how much exercise does it really take to trigger a reversal in the fat genes? Various research in multiple countries revealed that the exercise prescription is not a hard pill to swallow. Research suggests that moderate and regular exercise is sufficient. An obese adult who combines a sedentary desk job with 30-60 minutes of physical activity each day can reduce their genetic risk by up to forty percent. Since the benefits of exercise also prevent heart disease and other problems, it looks like the fat genes can be treated with an easy to produce drug-exercise.

New studies in the area of health medicine are revealing interesting facts about the affects of vitamin D deficiency on the human genome. Biotech researchers have managed to map vitamin D interaction with our DNA. They have pinpointed over two hundred genes that are influenced by the vitamin. Studies reveal that literally billions of people worldwide are not getting sufficient amounts of vitamin D. This increases their chances of being affected by a wide range of diseases.

Vitamin D deficiency is caused by a lack of exposure to the sun and poor nutrition. Developing autoimmune conditions such as type 1 diabetes, cancer, dementia, multiple sclerosis, and rheumatoid arthritis can all be linked to vitamin D deficiency. The widespread health impacts of the vitamin has triggered the health medicine community to institute a greater measure of support for supplementation during pregnancy and the early years of life. France has implemented supplementation of the vitamin to pregnant women as a rule.

The main source of vitamin D is the body’s production as a result of exposure to sunlight. This poses an interesting dilemma when experts are urging the population to stay out of the sun because of rises in skin cancers and damaging UV rays. One may question if the increase in autoimmune disease in recent decades can be linked to the widespread use of sunscreens. Vitamin D can also be obtained by eating eggs, fish liver oil, and fatty fish such as salmon, herring and mackerel. Vitamin D can also be taken as a supplement.

Studies have also shown that vitamin D is vital for triggering the immune system’s killer cells, known as T cells which can remain dormant and unresponsive to threats from all sorts of infections if vitamin D is lacking in the blood. These studies have prompted the medical community to reevaluate how much vitamin D is sufficient and how much is recommended if taking supplements of the vitamin. Studies are expected in the fall of 2010 but currently some experts suggest 25-50 micrograms of the health boosting vitamin per day.

When most people think of the human genome project that was completed in 2003, they think about health medicine and the human genome. Advances have been made in other areas of biotech research such as crop and agricultural sciences. The research that allows scientists to map the human genome can be used to map the genetic makeup of the plants that provide us with food, clothing, and other products which lead to improvements in crop yield and quality. There are a wide range of benefits to exploring this area more.

Biotech research continues to search for ways to develop insect, disease, drought resistant crops, more nutrient rich produce, vaccines which are edible through food products, and using plants as solutions to environmental problems/cleanups. Understanding and mapping the genome structures of plants will no doubt lead to the development of improved fruits and vegetables such as crispier apples, crunchier carrots, and juicier grapes; but this science goes beyond improving the experience of food. Plant genome engineering can go so far as to increase the quantity and quality of protein in certain crops making them more nutritious for the humans and animals who consume them.

In the recent difficult economy, farmers welcome plant varieties that are stronger, disease tolerant, and resistant to pests because it cuts down on the costs they incur when producing the crops. Using gene modification, scientists can control the rate at which plants ripen which can lengthen growing seasons. Consumers will benefit from lower prices on the final products which is a win-win for the economy. Additionally, there are alternative uses for plants like tobacco. One researcher engineered tobacco plants that were capable of producing an enzyme that actually breaks down the structure of explosives. This type of environmentally dangerous waste would typically take hundreds of years to decompose can be broken down with you use of a biotech engineered plant crop.

The human genome project has open up a brave new world of opportunity in biotech agricultural research. The mapping it provided will help the next generation of agricultural scientists to open doors to previously unimagined frontiers.

The human body fights infections using a complex system of genes. Vaccines are just one area in which advances in health medicine seek to match or personalize medical care to the individuals genetic make-up. The possibility of matching a vaccine to a specific person’s human genome make-up is mind boggling. Scientists are researching how to replace one-size-for-all vaccines with personalized vaccines that are tailored for the genetic make-up of the individual.

Since the human genome project’s first phase was complete over a decade ago, biotech researchers have developed sequencing tools which allow them to pinpoint the genes and gene groupings that play a role in the individual human body’s response to vaccines. Although these vaccines have not yet come into existence the horizon can be seen where patients will have their human genome sequences saved on their health insurance cards and their doctor or pharmacist matches their prescription to their gene sequence.

Amazing headway that has been made in this area but there are lingering challenges for biotech researchers. It is complex and difficult to identify which genes respond to vaccines. The human genome structure has thousands of immune related genes and they interact in complicated and varied ways. Other factors such as environmental influences, stress, and hormones can also play a role in the body’s response.

Another reason not to expect a personally tailored flu shot any time soon, is that once health medicine researchers find the answers to the above complex issues, they still have to get the vaccine research approved by the FDA. The drugs will cost more to manufacture and be less profitable to pharmaceutical companies who provide billions in research to get drugs approved. This will likely be another hurdle the personalized drugs will need to overcome.

Despite these battles, biotech researchers continue to pursue their efforts. Currently, vaccines for influenza, hepatitis, HIV, and herpes, and others are being researched and will not doubt one day be personalized for each individual. It is just a matter of time before these advances become reality.

In 2001 scientists charted the human genome and in doing so charted new territory in health medicine. Since then, biotech scientists have mapped the genes of over 60 animals, including the household dog and cat, lab mouse, snow leopard, pufferfish and even rare animals such as the sloth. Many environmentalists want to use this information to become better stewards of the planet and specifically endangered animals.

There is a new project called the Genome 10K in which researchers are attempting to assemble a genomic collection of DNA sequences to include 10,000 vertebrate species. Once projects such as this one are completed, more and more will use genome sequencing in research for endangered animal species. Once this data is assembled, biotech researchers will be able to understand in greater detail healthy domestic and endangered animal populations.

Because of technology and computer resources, scientists are able to map the genomes much more quickly and at a lower cost than the human genome was mapped a decade ago. Biotech advances as a result of the human genome project have provided an important foundation for this type of research.
-Genome studies are leading to an increased understanding of mammals and the manner in which their biological makeup works. Many animals, such as the great apes, face extinction. These apes such are believed to be the most similar to the human species. Therefore, mapping these genomes will provide biotech researchers with information for comparative analysis which could not only save the apes from extinction but provide health medicine benefits to the human population as well.

Many populations of animals are dying out as a result of disease. By mapping the genomes, scientist can pinpoint which genes are resistant to disease and better determine how to treat the animals in wild populations and to place them in areas that certain diseases are less prevalent.

Scientists are excited about the possibilities and are racing into the new era that genome research provides to them. They are hopeful that these new sequencing and mapping techniques will save many threatened animal populations.

Sweet, bitter, salty, and sour: these words describe the sensations that we experience when we taste; but to the wine industry the science behind what makes us taste products the way we do and the genetic differences in the plants they use to produce said products is of great interest. Advances in biotech science have provided incredible insights to wine makers and growers worldwide. This is just another way that the human genome project has advanced science applications beyond health medicine.

The making of a good wine starts with good plants and biotech research advances and developments in grapevine technology provide insights to explore for improvement. Using information from the human genome project, scientists are able to pinpoint the markers in grapevines that are more disease tolerant, require less water, and are less susceptible to pests. Finally, researchers have been successful in mapping the genome of actual grape varietals such as the pinot noir grape. This type of forefront research will provide the biotech community with information as to why certain varieties grow better in specific climates and have different qualities.

Developments in health medicine have revealed that, genetically speaking, people fall into one of three categories of intensity of taste. People with a genetic profile as “super-tasters” are very sensitive to very basic tastes, “taste-blind” are unable to taste the flavors of food or wine, and “regular-tasters”experience taste in a moderate manner. This information could change the way wines are judged in competitions and cause the makers to even question the value of such competitions because without knowledge of the individual who is tasting on a human genome level they would not know if their taste experience is similar to that of the winemaker.

The human genome project has opened a new world to plant and foods research. Biotech engineers use techniques, strategies and data from the human genome project to bring forth advances in the foods and in this case, drinks that we enjoy. With health medicine research indicating the many benefits of moderate wine consumption there are plenty of reasons for a toast to biotech science.

Completion of the human genome project has caused a huge rise in DNA and genetics research. Increasingly you hear talk of cloning, but what is cloning and what does it mean for the health medicine industry? In today’s biotech community it takes on many meanings. The most commonly discussed type of cloning is reproductive cloning, but there are different types than just reproducing a genetic duplicate of another organism. The three main types of cloning are DNA cloning, reproductive cloning, and therapeutic cloning.

DNA Cloning is also referred to as gene cloning and involves the transfer of a DNA fragment of interest from one organism to a self-replicating genetic element such as a bacteria. Then the DNA cell can be reproduced in a different environment. Biotech scientists have been doing this type of cloning since the 1970s but the information obtained as a result of the human genome project have made this practice more common. This type of cloning is important because it provides scientists with data related to gene therapy, sequencing genomes, and genetically engineered organisms.

Reproductive Cloning is creating an animal that has identical DNA to another animal. This is the manner in which Scottish scientist created Dolly the sheep in the late 1990s. The success with Dolly was not complete as it took many tries and expense but as technologies improve, this type of cloning could serve various purposes such as development of drug-producing animals or repopulation of endangered species.

Therapeutic Cloning or embryo cloning is creating human embryos for use in biotech or health medicine research. The goal is harvest stem cells to treat human diseases. Stem cells can recreate specialized cells in humans. Researchers are using the stem cells they gather from produced human embryos to study the treatment of cancer, Alzheimer’s and other diseases. This type of cloning is very controversial in scientific and religious communities.

Much more work by the biotech community will need to take place before these controversial cloning technologies become health medicine realities, but with ever speeding technologies are developed the reality of these ideas draw ever closer.

Two decades ago those diagnosed with Type 1 diabetes or diabetes mellitus, had little hope of escaping blindness, kidney failure, and possible loss of limbs. Thankfully, health medicine advances and biotech research have provided treatments that allow those with diabetes to live long and productive lives. Advances and information obtained from human genome studies have given health medicine researchers insight into cutting edge drug treatments and prevention technologies.

Human genome research has revealed that Type 1 diabetes is complex and mutations in more than one gene contribute to the likelihood of a person being diagnosed with the disease. Type 1 diabetes causes the body’s immune system to rage against its own pancreas cells and the insulin it produces. This inhibits the body from processing sugars and metabolizing food in a way that is not harmful to the body. The most common treatment is to inject insulin into the body so assist in the performance of these metabolic functions.

By understanding the genomes that are behind the disease, biotech researchers have development insulins that can more effectively treat the disease. New insulins offer diabetics the advantages of fewer injections per day, simpler regimens, and increased blood sugar stabilization. Three examples of insulins derived from DNA or human genome technology are: Aspart, Glargine, and Eli Lilly’s lispro mixture. These drugs vary in how fast or slow they act in the body as well as the type of needle or injector they required. This gives the patients much more choice and ability to work together with their physician to develop a drug therapy that best suits their lifestyle.

Biotech research has also provided insights in how to treat damage caused by the disease. For example, decoding the human genome has led to the development of a protein that blocks the growth of blood vessels in the eyes. A possible gene therapy is being considered to treat diabetic retinopathy which can often lead to blindness.

As human genome research continues to identify missing and/or malfunctioning genes, more possibilities for cutting edge therapy become available for not only Type 1 diabetes but also other diseases.

Alzheimer’s disease is a progressive brain disorder that causes nerve connections in the brain to die. The human genome project which was completed in 2003 has proven a useful tool for researchers when looking at the causes and treatments of this debilitating and deadly disease. This research has shown biotech researchers which genes are actually the indicators for Alzheimer’s. With this disease they can look at certain genes to see if they have a variant or change in it which may indicate an increased risk of having the disease later in life. When a gene with a certain mutation is indicated, it is called a genetic risk factor.

Health medicine research has revealed that there are two types of Alzheimer’s disease: early-onset and late-onset. Genetic research has shown that the differences in these two can be indicated by different genes. Early-onset Alzheimer’s disease is rare and only affects about 5% of those with the disease but is very traumatic as it can affect individuals as young as 30 years. Scientists have been able to pinpoint a mutation in a specific gene which leads to this rare form. With late-onset Alzheimer’s scientists did not pinpoint one specific gene that is involved, but they did find genetic indicators that predispose or increase an individual’s risk of developing it. Further analysis has indicated that there are at least five genetic markers associated with late-onset Alzheimer’s. The current research continues to expand as the genes that were already known lead to the discovery of others that play a role in the disease. Not only does the research reveal what genes are at play but also useful information about pathways and biochemicals involved in the progression of the disease.

New biotech resources in the area of health medicine are opening up research opportunities to learn how to better diagnose, predict and eventually prevent diseases such as Alzheimer’s.

Phamacogenomics-this word will certainly use up tiles on your next game of Scrabble but it’s so new it will likely not be recognized in the dictionary. It is the cutting edge field which studies how genes affect a person’s ability to respond to drugs. Creating safe, effective drug therapies that are customized to the individual patient’s genetic makeup is the goal. This field of biotech science is still in its early stages of development. It has been birthed as a result of the human genome project which was completed in 2003.

Biotech researchers seek to tailor drugs to treat conditions such as arthritis, cancer, asthma, and Alzheimer disease to name a few. Although age, diet, environment, lifestyle, and various other factors can contribute to a person’s response to certain drugs, health medicine researchers believe that genetic makeup is the key to creating personalized drugs that are tailor-made for the individual patient. Additionally, researchers hope to cut down on the number of adverse drug reactions or side effects to medications which cause 100,000 deaths per year.

Some of the health medicine benefits biotech researchers anticipate as a result of pharmacogenomics are more powerful, safer, more accurately dosed medications and vaccines. Researchers will be able to make drugs based upon certain enzymes, proteins, and RNA molecules that are associated with the specific genes that cause a disease; treating it with limited damage to healthy cells. Doctors will no longer have to depend on trial-and-error but will be able to assign the right drug to the patient from the get go. Genetically tailored medications will be dosed based upon the individual’s metabolism and genetic likelyhood to tolerate the drug instead of mere age, height and weight.

Additionally, pharmaceutical companies will be able to develop drug therapies more easily using the human genome targets. Clinical trials will waste less time and money by matching the trial to those with genetics most likely to respond to the drug being tested. This will lead to an overall reduction in the cost of health care costs for consumers. Looks like pharmacogenomics is a winning word after all.

Advances in health medicine research have proven valuable in the area of organ cloning. Since the human genome was mapped, scientists have already discovered possible benefits for modern health problems.

Even though organ cloning is relatively new to biotech research, it has shown to be able to grow new organ tissue. In embryonic cloning, the process uses embryo cells to grow new organ tissue. This is also sometimes called therapeutic cloning and does not use embryonic stem cells, but adult stem cells from specific organs to create specific tissues. These tissues then grow into full organs that can be used for transplants. The tissue could also be implanted into a defective organ to help regenerate it. Within the study of disease formation and growth, therapeutic cloning scientists have attempted to develop stem cells that contain the DNA of diseased tissue. The donor cells would come from the person who has the disease in question. In scenarios where a transplant is needed, biotech researchers are also looking for ways to make stem cells from the patients themselves to cut down on the body’s likelihood of rejecting the organ tissue.

These ideas do not come without controversy. Concerns are raised about the harvesting of embryo cells used in the experiments. Unfortunately, despite great advances, hundreds of embryo cells are usually discarded in the attempts. Many people fear that farms that grow embryos will become commonplace to provide the many samples needed for these experiments. The pro-life community strongly opposes the practice of cloning for reproduction, replication of DNA, and organ development. These groups believe that the moment of conception is the beginning of life and therefore cloning is viewed as murder. Federal laws prohibit funding for research but individual states can still designate which types of cloning they will or will not fund.

As information and biotechnologies continue to move forward, society will continue to press the boundaries of moral and ethical allowances. The debates and and controversy will no doubt continue just as surely as the research does.

The mapping of genomes as a result of the human genome project has provided insights into how viruses evolve and react inside different species of animals. Biotech researchers studying these mammals find this information helpful to the health medicine field. One such occasion is with the Madagascar lemur and the HIV virus. Scientists mapped DNA sequences from fossils of two different lemurs indigenous to Madagascar and discovered an extinct virus similar to the HIV virus. Greater understanding of this retrovirus is giving researchers clues as to why other primates with an HIV type virus never develop AIDS. This could revolutionize the treatment of HIV in humans.

The type of virus that scientists discovered is in a category called lentviruses, which includes HIV. Researchers have long believed that lentviruses developed in the past million years, but these fossils indicate that the disease may have affected mammals for over 80 million years. Since lentviruses have been discovered in separate continents and in species that would not have had opportunity to relate with one another, scientists are curious as to just how many species from different continents carry or have carried these type of viruses. Researchers have begun to develop a genome database to track these mammals and HIV similar virus. The possibility exists that there are species of Asian and New World monkeys that carry similar viruses.

Studying these complex interactions provides hope for insights into HIV/AIDS treatments. Certain primate immune functions protect them from developing AIDS because several genes block further production of the virus. The implications this could have on treatment of HIV treatments and vaccines is promising, but more research is necessary and there are few scientist tracking the genome sequences in primates thus far.

These discoveries lead to more questions than answers about how mammals have responded to viruses over millions of years; such as how they have developed defenses to the viruses, and why some mammals do not even carry this type of virus. More research will tell whether the study of ancient viruses carry the keys to unlocking the modern locked door of the HIV virus.

The breakthroughs in human genome research have led to health medicine advances and disease prevention, but there are unexpected doors being opened and new and exciting realms being explored as a result of biotech research.

One interesting outcome of the human genome project is the ability to determine genetic ancestry. Although these advances can be used to pinpoint ancestry in any race, the Jewish population is especially interested in these breakthroughs as questions have been raised for over a century questioning whether the Jewish people are a religious group, an actual race, or in some cases both.

Biotech advances in human genome studies have allowed researchers to pinpoint similarities by way of genomic analysis between Middle Eastern Jews and European Jews. Even though the two groups have been scattered around the world for over 2,500 years; these genetical markers demonstrate that all Jews have certain characteristics in common in their blood along with their religious and cultural similarities.

There is another reason why these biotech advances are exciting today. The migration of the Jewish people from their region of origin has taken place for 3,000 years. This migration is commonly referred to as the Diaspora. Since the establishment of Israel as a state in 1948 many of the Jewish people have chosen to make what is referred to as Aliyah, or a return to their homeland. Many people are often delayed and even not permitted to return because they lack the documentation to prove their Jewishness. Many Eastern European Jews lost all of their family records such as birth certificates as a result of the Holocaust. These biotech advances could open doors for many to receive the opportunity to return to Israel.

The millions of dollars that has flowed into the Human Genome Project has accomplished much more than breakthroughs in the area of health medicine. It is clear to see that the full extent of the impact of biotech and human genome research has yet to be discovered.

Scientists are using human genome mapping to search for genetic clues to why certain individuals more likely to suffer the effects of alcoholism. Study of these genes common amongst alcoholics have shown that while alcoholism does appear to run from one generation to the next, not all children of alcoholics are destined to develop alcoholism. Although genetics does play a role, environmental factors also come into play. Identifying the genes that influence the risk for alcoholism and related diseases will lead health medicine researchers to more effective therapies and prevention.

One study conducted by the Collaborative Study of Genetics of Alcoholism (COGA) revealed compelling evidence that the predisposition to alcoholism does pass from one generation to the next genetically. They noted that children with alcoholic parents, especially sons of alcoholic fathers, are four to nine times more likely to suffer from alcoholism that those of nonalcoholic parents; children whose genetic parents were alcoholics but were adopted by nonalcoholic parents were still at a high risk. Meanwhile, those who were raised by alcoholics whose genetic parents were not alcoholics, had a reduced risk of developing problems despite environmental factors.

Scientists began to associate alcoholism and genetics over thirty years ago but have only recently had the research and tools necessary to pinpoint specific genomes in the DNA. Despite these advances, alcoholism is a very complex disease. There are multiple genes interacting with each other and certain environmental and physiological factors that all playing a role. Alcoholism is genetically linked to other addictions and behaviors such as depression, antisocial personality disorders, and nicotine and/or cocaine addiction.

Alcoholism is a bigger problem than one may think, effecting over 75 million people globally. An even greater concern is of those who become dependent and undergo treatment only one-fifth will be sober one year later. The good news is that those who are aware of their genetic predisposition can totally prevent dependence altogether by abstaining from the substance, particularly during their younger years.

It is true that if there is a history of overall good health in your family, then your chances are better that you will be healthy than if your family tree reveals a lot of health problems. But even heredity can only go so far and won’t help if poor health is caused by bad habits or choices.

Living a healthy life means eating foods that are nutritious and contain very little fats and sugars. Make sure your diet includes lots of fruits and vegetables, and only small amounts of meat. Meat provides protein, a necessary nutrient, and while it is found in other foods, the best source of protein is lean meat. Choose skinless chicken prepared by broiling or grilling. Fish is also another good source of protein, and a good source of omega-3, another important nutrient.

Eating vegetables high in fiber and fruits that contain a lot of water will help you feel full more quickly and stay satisfied longer. This can help you curb your appetite, which in turn will help you control your weight.

However, even the most healthy foods can cause problems if you take in more calories than you burn, so a good exercise program is also essential to living a healthy life. Your exercise program can be something as simple as walking for thirty minutes a day, at least three times a week.

Of course, you know that smoking is bad for you, so if you smoke, you should stop immediately. And while moderate drinking—for instance, one glass of red wine, or two to three mixed drinks or beers a week—is probably safe, remember that alcohol consumption can lead to alcohol abuse or addiction.  If this occurs, however, the important thing is to seek help immediately through an alcohol rehab program. The sooner you stop drinking excessively, the faster your overall health will improve.

The main focus of the Human Genome Project was to study, understand and be able to use human genetics for the betterment of all mankind. By breaking down the essence of human life, scientists were able to better understand exactly what percentage of appearance, health, personality and more are the result of genetics. They became better able to understand the exact chemistry of the human body, and what kind of role genetics plays. The project lasted 13 years (from 1990-2003) and was an overwhelming success.

One of the benefits of the Human Genome Project was that for the first time, it gave scientists the ability to determine the likelihood of illness in human patients. Genes for all types of hereditary diseases were studied, identified, and could be accurately identified in people who carried the gene years before the first symptoms presented. While this could be beneficial for an individual to know, it’s detrimental for an insurance company to know.

In May of 2008, President Bush signed GINA, the Genetics Information Nondiscriminationn Act into law, thereby making it illegal for insurance companies to refuse or revoke coverage based on the results of genetics tests. Many insurance companies argued that the results of these tests could count as pre-existing conditions. However this law protects Americans on the basis that a condition does not become a documented condition until it presents itself. Simply carrying the gene is not enough to legally be able to negatively affect insurance plans.

GINA is a triumph for Americans everywhere who have had genetics tests because they are concerned about their family history of health. By having this act signed into law, people around the country can rest easy knowing that their health care will not be removed or go up in price, regardless of their genetics testing.

And every day, we move just a little bit closer to a time when people can just hit the hospital and get anything that is wrong with them made right, perhaps even on an outpatient basis. While these programs are only reasonably funded, they are still able to produce some exceptional results. In cases such as with a rare skin disease which inhibits collagen production, the use of stem cells has been shown to undo the damage that naturally bad genes can cause. Instead of a short, miserable life of trying desperately to avoid any kind of skin damage (such as brushing up against something) followed by horrifying cancers, these people can live long, full lives.

While not every experiment ends with the potential to essentially eradicate an existing disease, the promise goes even deeper than that. Can you imagine a time when the doctor can point to your unborn baby’s image on a monitor and say, “Yep, there was a genetic defect in there, but we took care of it. No problem.” Obviously, you would want to provide informed consent before anything of that nature took place… but the idea alone is pretty unbelievable. We stand on the cusp of an age where nobody hurts anymore.

For certain diseases such as colon cancer, early detection can be the difference between a full recovery and death. This disease also has a very strong genetic link, meaning if your parents or grandparents had it, there is a good chance you could have it, particularly in men. In this instance, genetic testing may be incredibly beneficial, as locating and identifying the gene means doctors can take a closer look and keep a watchful eye for even the slightest symptom. In situation where the genetics are strong and early detection is key, genetic testing is a good idea.

However not all diseases are as treatable with early detection as colon cancer. One such disease that has similarly strong genetic links is Alzheimer’s disease. Alzheimer’s can be identified just as easily on a genetics test, but unfortunately can not be cured. In situations like this, having a genetics test performed could potentially do more harm than good. Discovering that there is a significantly large chance that you could develop a life altering, debilitating and ultimately fatal disease, with nothing to do but wait for it to arrive, can be incredibly damaging. For that reason, genetics tests are not appropriate in every situation.

Although having a genetics test performed can be of great assistance to some, it can be a great hindrance to others. The decision to have a genetics test performed rest solely on whether or not you truly want to know the answers.

A genome is basically a CD carrying case containing DNA code. When speaking of the human genome, this “case” contains 46 CDs. These “CDs” are, you guessed it, chromosomes. In humans, chromosomes are paired up. Each person has 22 sets of autosomal chromosomes along with an additional set of chromosomes which determines gender. The study of these chromosomes have captured the interest of scientists and geneticists for many years.

A person that is interested in genetics wants to define what makes us tick. They want to know why one group of people chooses to wear Michele watches while another group is comfortable slipping on less stylish timepieces. It all comes down to our inner workings, the foundation of our system. Our decision-making processes, our feelings and our actions are said to stem from a combination of our genetics and our experiences.

Researchers want to find the reason behind these actions, misguided and otherwise. Two individuals raised in the same household to the same biological parents, having had the same experiences in life will often make differing decisions when it comes to a choice presented mutually. There is a reason behind this and the answer lies within the human genome.

The human genome is an enigma begging to be solved. There tends to be controversy over this subject, though. The main point of the controversy is that if humans discover the exact code which uniquely lies in each of us, then we will begin to engineer humans that only meet a specific standard. This is why the human genome project has been under fire from numerous organizations across the world. If genetic engineering is allowed to take place within the human race, what is left to happen to those individuals who were not scientifically engineered? This issue raises questions on each side of the fence and will continue to do so for years to come.