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Stem Cell Research – Stem Cell Treatments – Treatments …

Posted: May 19, 2015 at 5:46 pm

COMPARE CORD BLOOD BANKS

Choosing the right stem cell bank for your family is rarely a quick decision. But when you review the facts, you may find it much easier than you expected. Keep Reading >

1. The collection of cord blood can only take place at the time of delivery, and advanced arrangements must be made.

Cord blood is collected from the umbilical cord immediately after a babys birth, but generally before the placenta has been delivered. The moment of delivery is the only opportunity to harvest a newborns stem cells.

2. There is no risk and no pain for the mother or the baby.

The cord blood is taken from the cord once it has been clamped and cut. Collection is safe for both vaginal and cesarean deliveries. 3. The body often accepts cord blood stem cells better than those from bone marrow.

Cord blood stem cells have a high rate of engraftment, are more tolerant of HLA mismatches, result in a reduced rate of graft-versus-host disease, and are rarely contaminated with latent viruses.

4. Banked cord blood is readily accessible, and there when you need it.

Matched stem cells, which are necessary for transplant, are difficult to obtain due to strict matching requirements. If your childs cord blood is banked, no time is wasted in the search and matching process required when a transplant is needed. 5. Cells taken from your newborn are collected just once, and last for his or her lifetime.

For example, in the event your child contracts a disease, which must be treated with chemotherapy or radiation, there is a probability of a negative impact on the immune system. While an autologous (self) transplant may not be appropriate for every disease, there could be a benefit in using the preserved stem cells to bolster and repopulate your childs blood and immune system as a result of complications from other treatments.

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Stem cell controversy – Wikipedia, the free encyclopedia

Posted: May 19, 2015 at 5:46 pm

The stem cell controversy is the consideration of the ethics of research involving the development, usage, and destruction of human embryos. Most commonly, this controversy focuses on embryonic stem cells. Not all stem cell research involves the creation, usage and destruction of human embryos. For example, adult stem cells, amniotic stem cells and induced pluripotent stem cells do not involve creating, using or destroying human embryos and thus are minimally, if at all, controversial.

The use of stem cells has been happening for decades. In 1998, scientists discovered how to extract stem cells from human embryos. This discovery led to moral ethics questions concerning research involving embryo cells, such as what restrictions should be made on studies using these types of cells? At what point does one consider life to begin? Is it just to destroy an embryo cell if it has the potential to cure countless numbers of patients? Political leaders are debating how to regulate and fund research studies that involve the techniques used to remove the embryo cells. No clear consensus has emerged. Other recent discoveries may extinguish the need for embryonic stem cells. [1]

Since stem cells have the ability to differentiate into any type of cell, they offer something in the development of medical treatments for a wide range of conditions. Treatments that have been proposed include treatment for physical trauma, degenerative conditions, and genetic diseases (in combination with gene therapy). Yet further treatments using stem cells could potentially be developed thanks to their ability to repair extensive tissue damage.[2]

Great levels of success and potential have been shown from research using adult stem cells. In early 2009, the FDA approved the first human clinical trials using embryonic stem cells. Embryonic stem cells can become all cell types of the body which is called totipotent. Adult stem cells are generally limited to differentiating into different cell types of their tissue of origin. However, some evidence suggests that adult stem cell plasticity may exist, increasing the number of cell types a given adult stem cell can become. In addition, embryonic stem cells are considered more useful for nervous system therapies, because researchers have struggled to identify and isolate neural progenitors from adult tissues. Embryonic stem cells, however, might be rejected by the immune system - a problem which wouldn't occur if the patient received his or her own stem cells.

Some stem cell researchers are working to develop techniques of isolating stem cells that are as potent as embryonic stem cells, but do not require a human embryo.

Some believe that human skin cells can be coaxed to "de-differentiate" and revert to an embryonic state. Researchers at Harvard University, led by Kevin Eggan, have attempted to transfer the nucleus of a somatic cell into an existing embryonic stem cell, thus creating a new stem cell line.[3] Another study published in August 2006 also indicates that differentiated cells can be reprogrammed to an embryonic-like state by introducing four specific factors, resulting in induced pluripotent stem cells.[4]

Researchers at Advanced Cell Technology, led by Robert Lanza, reported the successful derivation of a stem cell line using a process similar to preimplantation genetic diagnosis, in which a single blastomere is extracted from a blastocyst.[5] At the 2007 meeting of the International Society for Stem Cell Research (ISSCR),[6] Lanza announced that his team had succeeded in producing three new stem cell lines without destroying the parent embryos. "These are the first human embryonic cell lines in existence that didn't result from the destruction of an embryo." Lanza is currently in discussions with the National Institutes of Health (NIH) to determine whether the new technique sidesteps U.S. restrictions on federal funding for ES cell research.[7]

Anthony Atala of Wake Forest University says that the fluid surrounding the fetus has been found to contain stem cells that, when utilized correctly, "can be differentiated towards cell types such as fat, bone, muscle, blood vessel, nerve and liver cells". The extraction of this fluid is not thought to harm the fetus in any way. He hopes "that these cells will provide a valuable resource for tissue repair and for engineered organs as well".[8]

The status of the human embryo and human embryonic stem cell research is a controversial issue as, with the present state of technology, the creation of a human embryonic stem cell line requires the destruction of a human embryo. Stem cell debates have motivated and reinvigorated the pro-life movement, whose members are concerned with the rights and status of the embryo as an early-aged human life. They believe that embryonic stem cell research instrumentalizes and violates the sanctity of life and is tantamount to murder.[9] The fundamental assertion of those who oppose embryonic stem cell research is the belief that human life is inviolable, combined with the belief that human life begins when a sperm cell fertilizes an egg cell to form a single cell.

A portion of stem cell researchers use embryos that were created but not used in in vitro fertility treatments to derive new stem cell lines. Most of these embryos are to be destroyed, or stored for long periods of time, long past their viable storage life. In the United States alone, there have been estimates of at least 400,000 such embryos.[10] This has led some opponents of abortion, such as Senator Orrin Hatch, to support human embryonic stem cell research.[11] See Also Embryo donation.

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Epigenetics – Simple English Wikipedia, the free encyclopedia

Posted: May 13, 2015 at 12:46 pm

Epigenetics is the study of changes in gene activity which are not caused by changes in the DNA sequence.[1] It is the study of gene expression, the way genes bring about their phenotypic effects.[2]

These changes in gene activity may stay for the remainder of the cell's life and may also last for many generations of cells, through cell divisions. However, there is no change in the underlying DNA sequence of the organism.[3] Instead, non-hereditary factors cause the organism's genes to behave (express themselves) differently.[4]

The best example of epigenetic changes in eukaryotes is the process of cell differentiation. During morphogenesis, generalised stem cells become the cell lines of the embryo which in turn become fully differentiated cells. In other words, a single fertilized egg cell the zygote divides and changes into all the many cell types: neurons, muscle cells, epithelium, blood vessels etc.

As the embryo develops, some genes get switched on, while others are switched off or moderated.[5] This process is called gene regulation. There are many molecules inside the cell nucleus which do the job of adjusting the genes' output.

DNA and histones make up what is called chromatin. Epigenetic modifications to the chromatin are copied during cell division. This produces a line of cells, all of which are alike. This is called a tissue.

Meiosis cancels epigenetic changes, and resets the genome to its baseline state, so the process unfolds in each new generation. There are some exceptions to this rule, but none of these exceptions involve changes to DNA base pair sequences.

This process is different from mutations of the DNA. Genetic mutations change the primary DNA sequence, and mutations can happen in any cell. However, only mutations in cells involved in reproduction can affect the offspring.

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Stem Cells Adult Stem Cells & Stem Cell Treatments …

Posted: May 13, 2015 at 12:45 am

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1 Stem Cell Treatments can help you today! Stem cells can actually help with a variety of conditions like Cerebral Palsy, ALS, Parkinsons, Stroke, TBI and more! read more.

2 Bone Marrow Stem Cells can be used as a safe & effective treatment for degenerative diseases. Dr. Steenblock has successfully performed/consulted on over 3,000 bone marrow stem cell therapy cases. read more

3Stemgevity was developed by physician Dr. David Steenblock to help mobilize your bodys own stem cells. Stemgevity is an all natural supplement that can help you start healing todayread more

4 In this revolutionizing book, both Dr. Steenblock & Dr. Payne describe the benefits of healthy umbilical cord stem cells and their ability to treat conditions like Cerebral Palsy.read more

The use of fat stem cells is not without risk, something brought into sharp focus late last year (2012) when stories surfaced in the media concerning a lady in Los Angeles who had a cosmetic procedure in which mesenchymal stem cells isolated from her own harvested fat were injected around her eyes along with a FDA approved dermal filler used to reduce wrinkles. The dermal filler contained calcium hydroxylapatite Read More

To hear critics of complementary alternative medicine (CAM) tell it, wholistic doctors such as myself are having a pervasive and insidious influence not only among medical consumers (aka the public) but weve managed to thoroughly infiltrate academia and hospitals and as a result are poised to catapult medicine back into the prescientific Middle Ages. If you compare the language and reasoning of many modern day quackbusters and so-called skeptics alongside newspaper articles from the 1950s McCarthy era Read More

DISCLAIMER: The use of stem cells or stem cell rich tissues as well as the mobilization of stem cells by any means, e.g., pharmaceutical, mechanical or herbal-nutrient is not FDA approved to combat aging or to prevent, treat, cure or mitigate any disease or medical condition mentioned, cited or described in any document or article on this website. This website and the information featured, showcased or otherwise appearing on it is not to be used as a substitute for medical advice, diagnosis or treatment of any health condition or problem. Those who visit this web site should not rely on information provided on it for their own health problems. Any questions regarding your own health should be addressed to your physician or other duly licensed healthcare provider. This website makes no guarantees, warranties or express or implied representations whatsoever with regard to the accuracy, completeness, timeliness, comparative or controversial nature, or usefulness of any information contained or referenced on this Web site. This website and its owners and operators do not assume any risk whatsoever for your use of this website or the information posted herein. Health-related information and opinions change frequently and therefore information contained on this Website may be outdated, incomplete or incorrect. All statements made about products, drugs and such on this website have not been evaluated by the Food and Drug Administration (FDA). In addition, any testimonials appearing on this website are based on the experiences of a few people and you are not likely to have similar results. Use of this Website does not create an expressed or implied professional relationship.

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The Stem Cell Transplant Process – Covenant Health

Posted: May 12, 2015 at 2:58 am

Stem cell transplantis used to facilitate high-dose chemotherapy. Stem cell therapy does not fight cancer. It helps the body recover after the high-dose chemotherapy which is used to treat cancers including multiple myeloma, non-Hodgkin's lymphoma, Hodgkin's disease and relapsed testicular cancer.

Standard chemotherapy Before high-dose chemotherapy and stem cell transplantation are used, medical oncologists administer multiple cycles of standard chemotherapy over several months. The standard chemotherapy is used to either reduce residual cancer cells or to determine if the patient will benefit from high-dose chemotherapy and stem cell transplantation.

Evaluation The first step in the high-dose chemotherapy/stem cell transplant process is a thorough evaluation to determine the patient's likelihood of benefiting from the treatment.

Medical records The patient's medical records are reviewed. Previous chemotherapy results, scans and other factors are considered to determine if the patient is likely to benefit from high-dose chemotherapy and stem cell transplantation. At this time the doctor will order other tests to establish whether the patient is physically able to go through the high-dose chemotherapy and stem cell transplant process.

MUGA scan or echocardiogram These tests measure how well the patient's heart pumps blood.

A MUGA (MUltiple Gated Acquisition) scan uses a radioactive substance injected into the patient's bloodstream and a gamma camera to produce a moving image of the heart as it beats.

An echocardiogram uses ultrasound to produce a moving image of the heart. It is similar to sonograms used to form images of babies in the womb.

Electrocardiogram (EKG) Electrocardiograms use sensors placed on various parts of the body to chart the heart's electrical activity.

CT or PET scan CT (computed tomography) makes multiple x-rays scans and assembles them together to form very accurate images of structures within the body. Sometimes a contrast dye is injected to enhance clarity and definition. CT scans can determine location of tumors precisely.

PET (positron emission tomography) uses a radioactive material injected into the body and a gamma camera to detect the metabolic activity of cells. PET scans are not as precise at determining tumor location, but are extremely accurate at establishing tumor activity.

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University of Michigan Stem Cell Research | Embryo Donation

Posted: May 12, 2015 at 2:53 am

For Donors

You have made embryos for fertility purposes and you no longer wish to use those embryos for reproduction. Or you may be making embryos for reproductive purposes that will be tested for genetic normalcy and those embryos found to have genetic abnormalities will not be used for implantation. You have been directed to this document because of your interest in freely donating embryos. You know and agree that any donation will be without compensation. No one has forced you to consider or make a donation. This document will aid you in thinking about and possibly donating those embryos for a human stem cell research project within the newly established MStem Cell Laboratories at the University of Michigan. The MStem Cell Laboratories is a group of physicians and scientists who are attempting to derive or develop new human embryonic stem cell lines for research on treatments and cures for medical diseases.

Stem cells can be found inside embryos about five days after the embryos have been formed by the union of sperm and egg. These stem cells have the unique ability to form any kind of human cell. Investigators within the MStem Laboratories are interested in generating new human embryonic stem cell lines from normal embryos and from embryos known to have genetic abnormalities (eg. Huntingtons Disease or Spinal Muscular Atrophy). An embryonic stem cell line is a group of unspecialized cells that can be grown indefinitely in laboratory dishes and that can be induced to form any type of specialized cells for the treatment or study of disease. Studies of genetically normal and abnormal human embryonic stem cell lines may help in understanding the development of diseases, in testing treatments, and in potentially discovering new treatments and cures.

To learn more, view this presentation on the basics of human embryonic stem cell production.

There are two sources of embryos that can be donated to the University of Michigan for human embryonic stem cell research:

PLEASE NOTE: MStem Cell Laboratories periodically closes its donation program for frozen embryos no longer needed for reproduction to maintain an appropriate inventory/usage balance. We are currently not accepting donations for frozen embryos no longer needed for reproduction. Please check back for a change in the current open/closed status of the donation program. If you have any further questions, please contact the MStem Cell Study Coordinator at 734-649-6557 or mstemcell@med.umich.edu.

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Ears, noses grown from stem cells in lab dishes – CBS News

Posted: May 11, 2015 at 3:54 am

Professor Alexander Seifalian poses for photographs with a synthetic polymer nose at his research facility in the Royal Free Hospital in London, Monday, March 31, 2014. In a north London hospital, scientists are growing noses, ears and blood vessels in the laboratory in a bold attempt to make body parts using stem cells. AP

In a north London hospital, scientists are growing noses, ears and blood vessels in the laboratory in a bold attempt to make body parts using stem cells.

It is among several labs around the world, including in the U.S., that are working on the futuristic idea of growing custom-made organs in the lab.

5 Photos

In a north London hospital, scientists are growing noses, ears and blood vessels in attempt to make body parts using stem cells

"It's like making a cake," said Alexander Seifalian at University College London, the scientist leading the effort. "We just use a different kind of oven."

During a recent visit to his lab, Seifalian showed off a sophisticated machine used to make molds from a polymer material for various organs.

Last year, he and his team made a nose for a British man who lost his to cancer. Scientists added a salt and sugar solution to the mold of the nose to mimic the somewhat sponge-like texture of the real thing. Stem cells were taken from the patient's fat and grown in the lab for two weeks before being used to cover the nose scaffold. Later, the nose was implanted into the man's forearm so that skin would grow to cover it.

Seifalian said he and his team are waiting for approval from regulatory authorities to transfer the nose onto the patient's face but couldn't say when that might happen

The potential applications of lab-made organs appear so promising even the city of London is getting involved: Seifalian's work is being showcased on Tuesday as Mayor Boris Johnson announces a new initiative to attract investment to Britain's health and science sectors so spin-off companies can spur commercial development of the pioneering research.

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Inbreeding – Wikipedia, the free encyclopedia

Posted: May 9, 2015 at 11:40 pm

"Inbred" redirects here. For the 2011 British film, see Inbred (film).

Inbreeding is the production of offspring from the mating or breeding of individuals or organisms that are closely related genetically, in contrast to outcrossing, which refers to mating unrelated individuals.[1] By analogy, the term is used in human reproduction, but more commonly refers to the genetic disorders and other consequences that may arise from incestuous sexual relationships and consanguinity.

Inbreeding results in homozygosity, which can increase the chances of offspring being affected by recessive or deleterious traits.[2] This generally leads to a decreased biological fitness of a population[3][4] (called inbreeding depression), which is its ability to survive and reproduce. An individual who inherits such deleterious traits is referred to as inbred. The avoidance of such deleterious recessive alleles caused by inbreeding, via inbreeding avoidance mechanisms, is the main selective reason for outcrossing.[5][6] Crossbreeding between populations also often has positive effects on fitness-related traits.[7]

Inbreeding is a technique used in selective breeding. In livestock breeding, breeders may use inbreeding when, for example, trying to establish a new and desirable trait in the stock, but will need to watch for undesirable characteristics in offspring, which can then be eliminated through further selective breeding or culling. Inbreeding is used to reveal deleterious recessive alleles, which can then be eliminated through assortative breeding or through culling. In plant breeding, inbred lines are used as stocks for the creation of hybrid lines to make use of the effects of heterosis. Inbreeding in plants also occurs naturally in the form of self-pollination.

Offspring of biologically related persons are subject to the possible impact of inbreeding, such as congenital birth defects. The chances of such disorders is increased the closer the relationship of the biological parents. (See coefficient of inbreeding.) This is because such pairings increase the proportion of homozygous zygotes in the offspring, in particular deleterious recessive alleles, which produce such disorders.[8] (See inbreeding depression.) Because most recessive alleles are rare in populations, it is unlikely that two unrelated marriage partners will both be carriers of the alleles. However, because close relatives share a large fraction of their alleles, the probability that any such deleterious allele is inherited from the common ancestor through both parents is increased dramatically. Contrary to common belief, inbreeding does not in itself alter allele frequencies, but rather increases the relative proportion of homozygotes to heterozygotes. However, because the increased proportion of deleterious homozygotes exposes the allele to natural selection, in the long run its frequency decreases more rapidly in inbred population. In the short term, incestuous reproduction is expected to produce increases in spontaneous abortions of zygotes, perinatal deaths, and postnatal offspring with birth defects.[9] The advantages of inbreeding may be the result of a tendency to preserve the structures of alleles interacting at different loci that have been adapted together by a common selective history.[10]

Malformations or harmful traits can stay within a population due to a high homozygosity rate and it will cause a population to become fixed for certain traits, like having too many bones in an area, like the vertebral column in wolves on Isle Royale or having cranial abnormalities in Northern elephant seals, where their cranial bone length in the lower mandibular tooth row has changed. Having a high homozygosity rate is bad for a population because it will unmask recessive deleterious alleles generated by mutations, reduce heterozygote advantage, and it is detrimental to the survival of small, endangered animal populations.[11] When there are deleterious recessive alleles in a population it can cause inbreeding depression. The authors think that it is possible that the severity of inbreeding depression can be diminished if natural selection can purge such alleles from populations during inbreeding.[12] If inbreeding depression can be diminished by natural selection than some traits, harmful or not, can be reduced and change the future outlook on a small, endangered populations.

There may also be other deleterious effects besides those caused by recessive diseases. Thus, similar immune systems may be more vulnerable to infectious diseases (see Major histocompatibility complex and sexual selection).[13]

Inbreeding history of the population should also be considered when discussing the variation in the severity of inbreeding depression between and within species. With persistent inbreeding, there is evidence that shows inbreeding depression becoming less severe. This is associated with the unmasking and eliminating of severely deleterious recessive alleles. It is not likely, though, that eliminating can be so complete that inbreeding depression is only a temporary phenomenon. Eliminating slightly deleterious mutations through inbreeding under moderate selection is not as effective. Fixation of alleles most likely occurs through Mullers Ratchet, when an asexual populations genomes accumulate deleterious mutations that are irreversible.[14]

Autosomal recessive disorders occur in individuals who have two copies of the gene for a particular recessive genetic mutation.[15] Except in certain rare circumstances, such as new mutations or uniparental disomy, both parents of an individual with such a disorder will be carriers of the gene. These carriers do not display any signs of the mutation and may be unaware that they carry the mutated gene. Since relatives share a higher proportion of their genes than do unrelated people, it is more likely that related parents will both be carriers of the same recessive gene, and therefore their children are at a higher risk of a genetic disorder. The extent to which the risk increases depends on the degree of genetic relationship between the parents: The risk is greater when the parents are close relatives and lower for relationships between more distant relatives, such as second cousins, though still greater than for the general population.[16] A study has provided the evidence for inbreeding depression on cognitive abilities among children, with high frequency of mental retardation among offspring in proportion to their increasing inbreeding coefficients.[17]

Children of parent-child or sibling-sibling unions are at increased risk compared to cousin-cousin unions.[18]

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Diabetes.net Welcome to the Original Diabetes Network

Posted: May 9, 2015 at 9:41 am

The Artificial Pancreas Treatment mimics natural and provides themissing stimulationof the liver. Clinics are open in the USA, China, and India, with Clinics planned in Taiwan, Mexico, Europe and Africa.

How is it "natural?" Theliverprovides theenzymes needed for the bodyto metabolize (burn) carbohydrates. This is the core problem that people with diabetes have, the inability to process this important type of food.

When the Artificial Pancreas Treatment mimics a normal pancreas stimulation of the liver, these missingenzymes are restored, the body can process carbohydrateswhich provides each cell with needed levels of cellular energy (ATP) fromcarbohydrates.

With that needed energy thetissuesheal themselves because the DNA remembers how to heal, naturally!

For Information, call(916) 550 1050

The Goals and Achievements

Global Roll Out of the THE ARTIFICIAL PANCREAS TREATMENT With new clinics going into 45 cities, and existing clinics in 18 USA cities the Trina Health Global Roll Out is under way. "We have proven that we can stop the suffering of diabetic heart, kidney, eye, nerve, brain fog, and wounds, what more is neeed?" announce the Trina Health CEO, and Chief Medical Officers. For over 20 years the Artificial Pancreas Treatment and Artificial Pancreas System have been in development, but the problem has always been that the cost of delivering the treatment is too high for the average diabetic patient. It is now proven that APT will slow, stop and in many ways reverse the complications of diabetes, truly wonderful news to millions. And now it is affordable and available. The treatment provides what a nondiabetic pancreas supplies, a very discreet series of oscillations in the blood of a nondiabetic person. These oscillations are required for normal carbohydrate and lipid metabolism. By mimicking what a nondiabetic pancreas does, the Artificial Pancreas System restores energy to the cells from carbohydrates, which are needed for the cells to have a normal amount of energy (ATP). The good news is that the DNA of every cell never forgets what it is supposed to do, and once proper metabolic energy is reestablished, the cell knows what to do and the body prepares itself naturally and in its own special way. The Artificial Pancreas Treatment (which is a treatment under the practice of Medicine) uses the FDA-cleared Bionica pump, the infusion part of the Artificial Pancreas System, and is now in the final commercial rollout phase where patients can be treated for six months and, with the help of a friend or family member, the patient can be treated at home for three weeks coming back only once a month into the clinic for the first year. After a successful year the patient will be able to be treated once every two months. This approach provides the answer on how to treat millions of people who are in dire need of stopping and reversing their diabetes complications. CALL OUR NUMBER FOR THE NEXT WEBINAR

Because of the amazing outcomes, there are not enough chairs for patients seeking the Artificial Pancreas Treatment. The two physician groups have joined to provide the outstanding care achieved in other clinics. This Clinic is a "Fath Based" clinic which helps even those who cannot fully pay. God bless them for that ! Read more...

Expanded Management by Hunter Carr and Scott Hepford is brining more patients to the Trina Health West Houston location, and additional locations in Houston are being planned. If anyone or a loved one has diabetes related complications, these Trina Health facilities provide free consultations and assessments. Conveniently located at 11511 Katy Freeway, Suite 510, Houston, TX, 77079 Please call: 713.595.9595 Read more...

Located in a new prestigious building, the Santa Monica clinic will be serving the UCLA and Beverly Hills area. Scheduled to open in March, this will provide a second LA Basin location. 5 more clinics are opening in the LA area. Read more...

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Orthopedic Stem Cell Solutions at the Spine & Pain Center …

Posted: May 8, 2015 at 10:49 pm

At Orthopedic Stem Cell Solutions at the Spine and Pain Center, we carefully evaluate each patient by taking a detailed medical history and reviewing all of your previous therapies. We arrive at an accurate diagnosis in a timely fashion. We then develop a treatment plan for your specific needs using the most advanced Interventional Techniques and most effective Regenerative Orthopedic Therapies.

At Orthopedic Stem Cell Solutions we do not routinely prescribe narcotic medications, which can simply mask the pain. We believe in the responsible and judicious use of narcotic pain medicine. We design an individualized treatment plan for you, which targets and treats the cause of your pain at the source with a Minimally Invasive Procedure or Orthopedic Intervention to help you avoid major surgery. A great majority of our patients have already seen other Physicians and Surgeons without success. We specialize in the more difficult cases.

REGENEXX PROCEDURES Offering the most advanced regenerative stem cell & blood platelet procedures available.

MEET DR. AMOROSO Board certified by the American Board of Anesthesiology and the American Board of Pain Medicine.

FREQUENT QUESTIONS Have questions? Check here and if your dont find what you need, please contact us.

DOWNLOAD PATIENT FORMS Get a head start by downloading patient forms before your next appointment.

Phone 732.531.7246 or Email Us:

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