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Testosterone Injections/Shots | Depo & Cypionate Dosage Chart

Posted: June 20, 2018 at 5:44 pm

Updated: Feb 27, 2018

Testosterone injections aren't generally discussed as a first line treatment when starting replacement therapy.

There are many testosterone preparations on the market such as; gels (Androgel and Testim), creams, pills (Andriol), pellets and patches.

However the marketing efforts of pharmaceutical companies are quite effective at influencing your doctor's prescribing habits, away from the older and more testosterone injections.

What's sad to say... the above treatments are all inferior to the much older developed injection method, when treating low testosterone.

It's not what you'd generally think is supposed to happen. Isn't medical science supposed to develop better treatments over time?

The thing is... not everyone loves needles. Understandably so.

In lieu of this, we have many alternatives with poor general absorption, leading to less effectiveness and worse outcomes.

So what's the point? Why use less invasive methods if they're barely going to work, with an increased chance of side effects included.

The good news is - injections allow for higher and more stable testosterone levels, and are about 5 - 10 times cheaper!

All the other formulations are self-limiting in how much testosterone can be absorbed. They may be enough to get you to the mid range of normal.

However, for a lot of men, mid range isn't enough to increase energy, libido, and mood to a satisfactory level. What you want is to be in the high normal range.

Dosages can also be titrated much easier compared to the other formulations.

As far as needle size, I use 31 gauge, 5/16 inch, 3/10 ml, insulin syringes subcutaneously in the upper/outer quadrant of my thighs. Rotating legs and areas, with subsequent injections.

To maintain correct dosing due to the small syringe size (0.3 ml), a 3 times per week schedule may be needed (Monday, Wednesday, Friday), or 2 smaller injections every 3 days like originally outlined.

The 3/10 ml small syringe size is what helps maintain maximum pressure to draw the oil. The smaller the syringe size, the greater the internal pressure. You'll notice a large difference in drawing capacity compared to the 1ml syringes.

It takes about a minute to draw, so you'll need to be patient. No need to warm the oil in advance I've found, although it may speed up the process.

The smaller needle size is well worth it in my opinion, to avoid long term scar tissue build up, especially with treatment potentially spanning decades.

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Riobe Institute of Integrative Medicine

Posted: June 20, 2018 at 5:44 pm

Because we look at your lifestyle, habits, and genetics when putting a personalizedplan together to keep you healthy and happy. We dont justlook for conditions that already exist. We look for problems that could evolve if preventative measures arent taken. Preventative medicine.

A mammogram may detect cancer in its early stages but will not prevent it.

A colonoscopy may detect cancer in its early stages but will not prevent it.

An EKG can detect heart problems but will not prevent a heart attack or stroke.

At Riobe Institute of Integrative Medicine, we see you as a unique whole all of you what and how you eat, your sleep and exercise habits, your genetics and cellular biology. Our holistic, integrative and comprehensive approach is customized to YOUR needs. We look to treat the cause of the symptom, not to just cover up the problem.

Reach out to talk to us about the kind of Concierge program that fits your needs. Ask about our corporate wellness programs too!

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Riobe Institute of Integrative Medicine

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Stem Cell Basics IV. | stemcells.nih.gov

Posted: June 20, 2018 at 5:43 pm

An adult stem cell is thought to be an undifferentiated cell, found among differentiated cells in a tissue or organ. The adult stem cell can renew itself and can differentiate to yield some or all of the major specialized cell types of the tissue or organ. The primary roles of adult stem cells in a living organism are to maintain and repair the tissue in which they are found. Scientists also use the term somatic stem cell instead of adult stem cell, where somatic refers to cells of the body (not the germ cells, sperm or eggs). Unlike embryonic stem cells, which are defined by their origin (cells from the preimplantation-stage embryo), the origin of adult stem cells in some mature tissues is still under investigation.

Research on adult stem cells has generated a great deal of excitement. Scientists have found adult stem cells in many more tissues than they once thought possible. This finding has led researchers and clinicians to ask whether adult stem cells could be used for transplants. In fact, adult hematopoietic, or blood-forming, stem cells from bone marrow have been used in transplants for more than 40 years. Scientists now have evidence that stem cells exist in the brain and the heart, two locations where adult stem cells were not at firstexpected to reside. If the differentiation of adult stem cells can be controlled in the laboratory, these cells may become the basis of transplantation-based therapies.

The history of research on adult stem cells began more than 60 years ago. In the 1950s, researchers discovered that the bone marrow contains at least two kinds of stem cells. One population, called hematopoietic stem cells, forms all the types of blood cells in the body. A second population, called bone marrow stromal stem cells (also called mesenchymal stem cells, or skeletal stem cells by some), were discovered a few years later. These non-hematopoietic stem cells make up a small proportion of the stromal cell population in the bone marrow and can generate bone, cartilage, and fat cells that support the formation of blood and fibrous connective tissue.

In the 1960s, scientists who were studying rats discovered two regions of the brain that contained dividing cells that ultimately become nerve cells. Despite these reports, most scientists believed that the adult brain could not generate new nerve cells. It was not until the 1990s that scientists agreed that the adult brain does contain stem cells that are able to generate the brain's three major cell typesastrocytes and oligodendrocytes, which are non-neuronal cells, and neurons, or nerve cells.

Adult stem cells have been identified in many organs and tissues, including brain, bone marrow, peripheral blood, blood vessels, skeletal muscle, skin, teeth, heart, gut, liver, ovarian epithelium, and testis. They are thought to reside in a specific area of each tissue (called a "stem cell niche"). In many tissues, current evidence suggests that some types of stem cells are pericytes, cells that compose the outermost layer of small blood vessels. Stem cells may remain quiescent (non-dividing) for long periods of time until they are activated by a normal need for more cells to maintain tissues, or by disease or tissue injury.

Typically, there is a very small number of stem cells in each tissue and, once removed from the body, their capacity to divide is limited, making generation of large quantities of stem cells difficult. Scientists in many laboratories are trying to find better ways to grow large quantities of adult stem cells in cell culture and to manipulate them to generate specific cell types so they can be used to treat injury or disease. Some examples of potential treatments include regenerating bone using cells derived from bone marrow stroma, developing insulin-producing cells for type1 diabetes, and repairing damaged heart muscle following a heart attack with cardiac muscle cells.

Scientists often use one or more of the following methods to identify adult stem cells: (1) label the cells in a living tissue with molecular markers and then determine the specialized cell types they generate; (2) remove the cells from a living animal, label them in cell culture, and transplant them back into another animal to determine whether the cells replace (or "repopulate") their tissue of origin.

Importantly, scientists must demonstrate that a single adult stem cell can generate a line of genetically identical cells that then gives rise to all the appropriate differentiated cell types of the tissue. To confirm experimentally that a putative adult stem cell is indeed a stem cell, scientists tend to show either that the cell can give rise to these genetically identical cells in culture, and/or that a purified population of these candidate stem cells can repopulate or reform the tissue after transplant into an animal.

As indicated above, scientists have reported that adult stem cells occur in many tissues and that they enter normal differentiation pathways to form the specialized cell types of the tissue in which they reside.

Normal differentiation pathways of adult stem cells. In a living animal, adult stem cells are available to divide for a long period, when needed, and can give rise to mature cell types that have characteristic shapes and specialized structures and functions of a particular tissue. The following are examples of differentiation pathways of adult stem cells (Figure 2) that have been demonstrated in vitro or in vivo.

Figure 2. Hematopoietic and stromal stem cell differentiation. Click here for larger image. ( 2008 Terese Winslow)

Transdifferentiation. A number of experiments have reported that certain adult stem cell types can differentiate into cell types seen in organs or tissues other than those expected from the cells' predicted lineage (i.e., brain stem cells that differentiate into blood cells or blood-forming cells that differentiate into cardiac muscle cells, and so forth). This reported phenomenon is called transdifferentiation.

Although isolated instances of transdifferentiation have been observed in some vertebrate species, whether this phenomenon actually occurs in humans is under debate by the scientific community. Instead of transdifferentiation, the observed instances may involve fusion of a donor cell with a recipient cell. Another possibility is that transplanted stem cells are secreting factors that encourage the recipient's own stem cells to begin the repair process. Even when transdifferentiation has been detected, only a very small percentage of cells undergo the process.

In a variation of transdifferentiation experiments, scientists have recently demonstrated that certain adult cell types can be "reprogrammed" into other cell types in vivo using a well-controlled process of genetic modification (see Section VI for a discussion of the principles of reprogramming). This strategy may offer a way to reprogram available cells into other cell types that have been lost or damaged due to disease. For example, one recent experiment shows how pancreatic beta cells, the insulin-producing cells that are lost or damaged in diabetes, could possibly be created by reprogramming other pancreatic cells. By "re-starting" expression of three critical beta cell genes in differentiated adult pancreatic exocrine cells, researchers were able to create beta cell-like cells that can secrete insulin. The reprogrammed cells were similar to beta cells in appearance, size, and shape; expressed genes characteristic of beta cells; and were able to partially restore blood sugar regulation in mice whose own beta cells had been chemically destroyed. While not transdifferentiation by definition, this method for reprogramming adult cells may be used as a model for directly reprogramming other adult cell types.

In addition to reprogramming cells to become a specific cell type, it is now possible to reprogram adult somatic cells to become like embryonic stem cells (induced pluripotent stem cells, iPSCs) through the introduction of embryonic genes. Thus, a source of cells can be generated that are specific to the donor, thereby increasing the chance of compatibility if such cells were to be used for tissue regeneration. However, like embryonic stem cells, determination of the methods by which iPSCs can be completely and reproducibly committed to appropriate cell lineages is still under investigation.

Many important questions about adult stem cells remain to be answered. They include:

Previous|IV. What are adult stem cells?|Next

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Pluripotent Stem Cells 101 | Boston Children’s Hospital

Posted: June 20, 2018 at 5:43 pm

Pluripotent stem cells are master cells. Theyre able to make cells from all three basic body layers, so they can potentially produce any cell or tissue the body needs to repair itself. This master property is called pluripotency. Like all stem cells, pluripotent stem cells are also able to self-renew, meaning they can perpetually create more copies of themselves.

There are several types of pluripotent stem cells, including embryonic stem cells. At Childrens Hospital Boston, we use the broader term because pluripotent stem cells can come from different sources, and each method creates a cell with slightly different properties.

But all of them are able to differentiate, or mature, into the three primary groups of cells that form a human being:

Right now, its not clear which type or types of pluripotent stem cells will ultimately be used to create cells for treatment, but all of them are valuable for research purposes, and each type has unique lessons to teach scientists. Scientists are just beginning to understand the subtle differences between the different kinds of pluripotent stem cells, and studying all of them offers the greatest chance of success in using them to help patients.

Types of pluripotent stem cells:

All four types of pluripotent stem cells are being actively studied at Childrens.

Induced pluripotent cells (iPS cells):Scientists have discovered ways to take an ordinary cell, such as a skin cell, and reprogram it by introducing several genes that convert it into a pluripotent cell. These genetically reprogrammed cells are known as induced pluripotent cells, or iPS cells. The Stem Cell Program at Childrens Hospital Boston was one of the first three labs to do this in human cells, an accomplishment cited as the Breakthrough of the Year in 2008 by the journal Science.

iPS cells offer great therapeutic potential. Because they come from a patients own cells, they are genetically matched to that patient, so they can eliminate tissue matching and tissue rejection problems that currently hinder successful cell and tissue transplantation. iPS cells are also a valuable research tool for understanding how different diseases develop.

Because iPS cells are derived from skin or other body cells, some people feel that genetic reprogramming is more ethical than deriving embryonic stem cells from embryos or eggs. However, this process must be carefully controlled and tested for safety before its used to create treatments. In animal studies, some of the genes and the viruses used to introduce them have been observed to cause cancer. More research is also needed to make the process of creating iPS cells more efficient.

iPS cells are of great interest at Childrens, and the lab of George Q. Daley, MD, PhD, Director of Stem Cell Transplantation Program, reported creating 10 disease-specific iPS lines, the start of a growing repository of iPS cell lines.

Embryonic stem cells:Scientists use embryonic stem cell as a general term for pluripotent stem cells that are made using embryos or eggs, rather than for cells genetically reprogrammed from the body. There are several types of embryonic stem cells:

1. True embryonic stem cell (ES cells)These are perhaps the best-known type of pluripotent stem cell, made from unused embryos that are donated by couples who have undergone in vitro fertilization (IVF). The IVF process, in which the egg and sperm are brought together in a lab dish, frequently generates more embryos than a couple needs to achieve a pregnancy.

These unused embryos are sometimes frozen for future use, sometimes made available to other couples undergoing fertility treatment, and sometimes simply discarded, but some couples choose to donate them to science. For details on how theyre turned into stem cells, visit our page How do we get pluripotent stem cells?

Pluripotent stem cells made from embryos are generic and arent genetically matched to a particular patient, so are unlikely to be used to create cells for treatment. Instead, they are used to advance our knowledge of how stem cells behave and differentiate.

2. Stem cells made by somatic cell nuclear transfer (ntES cells)The term somatic cell nuclear transfer (SCNT) means, literally, transferring the nucleus (which contains all of a cells genetic instructions) from a somatic cellany cell of the bodyto another cell, in this case an egg cell. This type of pluripotent stem cell, sometimes called an ntES cell, has only been made successfully in lower animals. To make ntES cells in human patients, an egg donor would be needed, as well as a cell from the patient (typically a skin cell).

The process of transferring a different nucleus into the egg reprograms it to a pluripotent state, reactivating the full set of genes for making all the tissues of the body. The egg is then allowed to develop in the lab for several days, and pluripotent stem cells are derived from it. (Read more in How do we get pluripotent stem cells?)

Like iPS cells, ntES cells match the patient genetically. If created successfully in humans, and if proven safe, ntES cells could completely eliminate tissue matching and tissue rejection problems. For this reason, they are actively being researched at Childrens.

3. Stem cells from unfertilized eggs (parthenogenetic embryonic stem cells)Through chemical treatments, unfertilized eggs can be tricked into developing into embryos without being fertilized by sperm, a process called parthenogenesis. The embryos are allowed to develop in the lab for several days, and then pluripotent stem cells can be derived from them (for more, see How do we get pluripotent stem cells?)

If this technique is proven safe, a woman might be able to donate her own eggs to create pluripotent stem cells matching her genetically that in turn could be used to make cells that wouldnt be rejected by her immune system.

Through careful genetic typing, it might also be possible to use pES cells to create treatments for patients beyond the egg donor herself, by creating master banks of cells matched to different tissue types. In 2006, working with mice, Childrens researchers were the first to demonstrate the potential feasibility of this approach. (For details, see Turning pluripotent stem cells into treatment).

Because pES cells can be made more easily and more efficiently than ntES cells, they could potentially be ready for clinical use sooner. However, more needs to be known about their safety. Concerns have been raised that tissues derived from them might not function normally.

Read more about pluripotent stem cells by following these links:

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Where Do We Get Adult Stem Cells? | Boston Children’s Hospital

Posted: June 20, 2018 at 5:43 pm

There are several ways adult stem cells can be isolated, most of which are being actively explored by our researchers.

1) From the body itself:Scientists are discovering that many tissues and organs contain a small number of adult stem cells that help maintain them. Adult stem cells have been found in the brain, bone marrow, blood vessels, skeletal muscle, skin, teeth, heart, gut, liver, and other (although not all) organs and tissues. They are thought to live in a specific area of each tissue, where they may remain dormant for years, dividing and creating new cells only when they are activated by tissue injury, disease or anything else that makes the body need more cells.

Adult stem cells can be isolated from the body in different ways, depending on the tissue. Blood stem cells, for example, can be taken from a donors bone marrow, from blood in the umbilical cord when a baby is born, or from a persons circulating blood. Mesenchymal stem cells, which can make bone, cartilage, fat, fibrous connective tissue, and cells that support the formation of blood can also be isolated from bone marrow. Neural stem cells (which form the brains three major cell types) have been isolated from the brain and spinal cord. Research teams at Childrens, headed by leading scientists Stuart Orkin, MD and William Pu, MD, both affiliate members of the Stem Cell Program, recently isolated cardiac stem cells from the heart.

Isolating adult stem cells, however, is just the first step. The cells then need to be grown to large enough numbers to be useful for treatment purposes. The laboratory of Leonard Zon, MD, director of the Stem Cell Program, has developed a technique for boosting numbers of blood stem cells thats now in Phase I clinical testing.

2) From amniotic fluid:Amniotic fluid, which bathes the fetus in the womb, contains fetal cells including mesenchymal stem cells, which are able to make a variety of tissues. Many pregnant women elect to have amniotic fluid drawn to test for chromosome defects, the procedure known as amniocentesis. This fluid is normally discarded after testing, but Childrens Hospital Boston surgeon Dario Fauza, MD, a Principal Investigator at Childrens and an affiliate member of the Stem Cell Program, has been investigating the idea of isolating mesenchymal stem cells and using them to grow new tissues for babies who have birth defects detected while they are still in the womb, such as congenital diaphragmatic hernia. These tissues would match the baby genetically, so would not be rejected by the immune system, and could be implanted either in utero or after the baby is born.

3) From pluripotent stem cells:Because embryonic stem cells and induced pluripotent cells (iPS cells), which are functionally similar, are able to create all types of cells and tissues, scientists at Childrens and elsewhere hope to use them to produce many different kinds of adult stem cells. Laboratories around the world are testing different chemical and mechanical factors that might prod embryonic stem cells or iPS cells into forming a particular kind of adult stem cell. Adult stem cells made in this fashion would potentially match the patient genetically, eliminating both the problem of tissue rejection and the need for toxic therapies to suppress the immune system.

4) From other adult stem cells:A number of research groups have reported that certain kinds of adult stem cells can transform, or differentiate, into apparently unrelated cell types (such as brain stem cells that differentiate into blood cells or blood-forming cells that differentiate into cardiac muscle cells). This phenomenon, called transdifferentiation, has been reported in some animals. However, its still far from clear how versatile adult stem cells really are, whether transdifferentiation can occur in human cells, or whether it could be made to happen reliably in the lab.

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Regenerative Care Clinics of Illinois | Stem Cell Therapy …

Posted: June 20, 2018 at 5:43 pm

R3 Stem Cell offers regenerative treatment options throughout the US that bring patients hope along with relief. Hope that surgery may be avoided, and regeneration and repair of damaged tissue without surgery. The person may then be able to participate in desired activities like swimming, biking, hiking, football, golf, playing with your kids again and being Pain Free!

R3 Stem Cell partners with the top pain and orthopedic practices nationwide to offer stem cell and PRP therapy to those desiring state-of-the-art treatment by compassionate, Board Certified providers. R3 Stem Cell offers the top stem cell therapy providers in Chicagoland. R3 is proud to help patients receive regenerative therapies with the latest effective technology available.

Conventional pain treatments have been very good at reducing pain by masking discomfort in a band aid fashion with oral or injected medications like steroids, narcotics, or NSAIDs. These therapies unfortunately do not fix the underlying problem.

So how is the condition actually repaired, whether its shoulder/knee/hip/ankle arthritis, back or neck pain, golfers or tennis elbow, rotator cuff tendonitis or a ligament injury?

Regenerative Medicine has the potential to restore anatomy with stem cells, growth factors and platelets to facilitate a healing response in ones own body.

Stem Cells are like a blank slate and may differentiate into any number of cell types for tissue regeneration. This is in large part dependent on the environment in which they are placed.

Stem cell injection treatments include:

These are all minimally invasive, same day, low risk, outpatient procedures.

Initial studies are showing these stem cell therapies to offer substantial promise in healing injury while reducing pain. For example, most professional sports leagues have approved of PRP therapy along with the World Anti-Doping Association.

Pro athletes who have received regenerative medicine treatment include the likes of Rafael Nadal, Dwight Howard, Tiger Woods, Kobe Bryant, Bartolo Colon and many more.

The treatments are also producing exceptional outcomes for degenerative arthritis, COPD, kidney failure, neuropathy, Lyme disease, heart failure and more.

All of the treatments are performed by highly experienced providers.

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Regenerative Care Clinics of Illinois | Stem Cell Therapy ...

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Stem Cell Therapy Chicago Illinois, Buffalo Grove …

Posted: June 20, 2018 at 5:43 pm

TREATMENTS

Regenerative revolutionary cord blood stem cell therapies along with PRP therapy that are effective, nonsteroidal, outpatient & repairdamaged tissue.

Repair and regenerate damaged joints, tendons, ligaments and cartilage from sports injuries or arthritis. Back and neck pain, COPD, Kidney/Heart Failure and more!

Your most common questions answered about cord blood regenerative therapies and how they can help you obtain relief, increase function and avoid potentially risky surgery.

Super Bowl Champion Otis Wilson Undergoes Stem Cell Therapy

Chicago Stem Cell Doctor Lawrence Mason Discusses Treatment

NFL Player Tom Waddle Receives Successful Stem Cell Therapy

R3 Chicago Stem Cell Director Answers FAQs

Stem Cell Therapy Has Been Groundbreaking For Pain Relief

Avoid Surgery with Umbilical Cord Blood Stem Cell Therapy and PRP (888) 885-8675!At Regenerative Care Clinics of Illinois

I wanted to avoid joint replacement since my first one resulted in a scary blood clot. Had the procedure 6 months ago - no pain since!*

Theresa M, Phoenix AZ

I had it done on my knee and it worked great.*

David G, Oroville CA

Had stem cells in both knees years ago. Still have not had to have two total knees that I had been told to do since both were bone on bone!*

Gayle F, Cape Coral Florida

I know about these clinics. Know some treated people who could not move without severe pain..they now lead a miraculously beautiful life..amazing stories.*

Gail M, Palm Springs CA

Avoid Surgery with Umbilical Cord Blood Stem Cell Therapy and PRP (888) 885-8675!At Regenerative Care Clinics of Illinois

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Stem Cell Therapy for Rotator Cuff Tears | Stem Cell …

Posted: June 20, 2018 at 5:43 pm

An Overview on Stem Cell Rotator Cuff Repair

The shoulder is considered the most mobile joint in the human body and is prone to a number of injuries, including a rotator cuff tear. The rotator cuff is a critical structure found within the shoulder joint that provides strength and allows overhead movements of the arm. A rotator cuff tear is quite common in the athletic community and involves a partial or complete tear of one or more of the four muscle-tendon units. Many patients in the Chicago, Westchester, Oak Brook and Hinsdale, Illinois area who experience a rotator cuff tear require treatment to alleviate shoulder pain, weakness and loss of mobility. Stem cell therapy for rotator cuff tears may be a valuable treatment option for patients involved in an active lifestyle who want to eliminate the need for surgery. Dr. Nikhil Verma, orthopedic surgeon and sports medicine specialist, offers patients stem cell rotator cuff repair.

The rotator cuff is composed of four muscle-tendon units that attach the upper arm bone to the shoulder blade and provides strength and stability to the shoulder. When one of these units becomes torn during athletic activities or from chronic overuse, patients experience pain, weakness and loss of motion.

Orthopedic specialists often begin treatment for a torn rotator cuff with rest, medications, cortisone injections and physical therapy. Surgery is commonly the next step if conservative measures fail. Dr. Verma offers stem cell rotator cuff repair so patients can use their own adult stem cells found throughout their body either at the time of repair or in select patients as a possible alternative to undergoing surgery and a lengthy rehabilitation program.

If you would like to see the leading research on the outcomes of biologic/regenerative treatments, please visit our research library.

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National Stem Cell Centers | Stem Cell Therapy in New York …

Posted: June 20, 2018 at 5:42 pm

At National Stem Cell Centers, our affiliate physicians focus on leading edge, regenerative medicine. Instead of synthetic compounds, prescription medications, or surgical procedures, we activate your own natural cellular resources to promote healing.

Our goal is to allow patients access to this potentially revolutionary form of treatment to harness your bodys natural healing cascade mechanism for the repair of damaged tissues.

Adult mesenchymal stem cells are a form of undifferentiated cells. These kinds of stem cells are found in great abundance within fatty tissue. Lying dormant (non-replicating), these remarkably intelligent cells can be activated to become other kinds of cells specific to tendons, muscle, blood vessels, nerves and bone.

This means that stem cell therapies can be the key to reducing pain, chronic inflammation, and the mitigation of many degenerative disease states.

At National Stem Cell Centers, our affiliated physicians utilize only adult stem cells harvested from your own fat tissue, without any form of artificial cellular manipulation. This means that our treatments are both effective and efficacious.

Stem cell therapies may be helpful in addressing conditions and injuries such as pain, erectile dysfunction, hair loss, chronic inflammation, autoimmune disorders, orthopedic diseases, urological disorders, nerve conditions, heart and lung diseases, and more.

Call our New York office at(646) 448-0427(New York) or(516) 403-1457(Long Island) today to find out if you are a good candidate for stem cell therapy, and to schedule your complimentary consultation. National Stem Cell Centers also has locations in Southampton NY, New Jersey, Dallas and Houston in Texas, and Atlanta GA.

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Hormone replacement therapy (female-to-male) – Wikipedia

Posted: June 20, 2018 at 5:42 pm

Hormone replacement therapy (HRT) of the female-to-male (FTM) type is hormone replacement therapy and sex reassignment therapy used to change the secondary sexual characteristics of transgender and transsexual people from feminine (or androgynous) to masculine. Usually called "cross-sex hormone therapy" (XHT) or "hormone therapy", it is one of two types of HRT for transgender and transsexual people (the other being male-to-female), and is predominantly used to treat transgender men. Some intersex people also receive this form of HRT, either starting in childhood to confirm the assigned sex or later if the assignment proves to be incorrect.

The purpose of this form of HRT is to cause the development of the secondary sex characteristics of the desired sex, such as voice deepening and a masculine pattern of hair, fat, and muscle distribution. It cannot undo many of the changes produced by naturally occurring puberty, which may necessitate surgery and other treatments (see below). The medications used in HRT of the FTM type include, mainly, androgens (namely testosterone) and GnRH analogues.

While HRT cannot undo the effects of a person's first puberty, developing secondary sex characteristics associated with a different gender can relieve some or all of the distress and discomfort associated with gender dysphoria, and can help the person to "pass" or be seen as the gender they identify with. Introducing exogenous hormones into the body impacts it at every level and many patients report changes in energy levels, mood, appetite, etc. The goal of HRT, and indeed all somatic treatments, is to provide patients with a more satisfying body that is more congruent with their gender identity.

Several contraindications to androgen therapy exist.[1] An absolute medical contraindication is pregnancy.

Relative medical contraindications are:

Hormone therapy for transgender individuals has been shown in medical literature to be safe in adults, when supervised by a qualified medical professional.[2]

Testosterone is metabolized by the cytochrome P450 enzyme system (specifically CYP3A isoforms) in the liver. There are certain drugs that increase or decrease the activity of cytochrome P450 enzymes and may cause increased or decreased levels of testosterone:

Testosterone can also alter the effects of other drugs:

Because of these interactions, it is advised that trans men make their healthcare providers aware of their hormone therapy, when this is relevant to their treatment for other medical issues.

The terminal half-life of testosterone in blood is about 70 minutes, so it is necessary to have a continuous supply of the hormone for masculinization.

'Depot' drug formulations are created by mixing a substance with the drug that slows its release and prolongs the action of the drug. The two primarily used forms in the United States are the testosterone esters testosterone cypionate (Depo-Testosterone) and testosterone enanthate (Delatestryl) which are almost interchangeable. Testosterone enanthate is purported to be slightly better with respect to even testosterone release, but this is probably more of a concern for bodybuilders who use the drugs at higher doses (2501000mg/week) than the replacement doses used by transgender men (50100mg/week). These testosterone esters are mixed with different oils, so some individuals may tolerate one better than the other. Testosterone enanthate costs more than testosterone cypionate and is more typically the one prescribed for hypogonadal males in the United States. Testosterone cypionate is more popular in the United States than elsewhere (especially amongst bodybuilders). Other formulations exist but are more difficult to come by in the United States. A formulation of injected testosterone available in Europe and the United States, testosterone undecanoate (Nebido, Aveed)[3][4] provides significantly improved testosterone delivery with far less variation outside the eugonadal range than other formulations with injections required only four times yearly. However, each quarterly dose requires injection of 4mL of oil which may require multiple simultaneous injections. Testosterone undecanoate is also much more expensive as it is still under patent protection. Testosterone propionate is another testosterone ester that is widely available, including in the United States, Canada, and Europe, but it is very short-acting compared to the other testosterone esters and must be administered once every 2 or 3 days, and for this reason, is rarely used.

The adverse side effects of injected testosterone esters are generally associated with high peak levels in the first few days after an injection. Some side effects may be ameliorated by using a shorter dosing interval (weekly or every ten days instead of twice monthly with testosterone enanthate or testosterone cypionate). 100mg weekly gives a much lower peak level of testosterone than does 200mg every two weeks, while still maintaining the same total dose of androgen. This benefit must be weighed against the discomfort and inconvenience of doubling the number of injections.

Injected testosterone esters should be started at a low dose and titrated upwards based on trough levels (blood levels drawn just before your next shot). A trough level of 500ng/dl is sought. (Normal range for a cisgender male is 290 to 900ng/dl).

Both testosterone patches, creams and gels are available. Both approximate normal physiological levels of testosterone better than the higher peaks associated with injection. Both can cause local skin irritation (more so with the patches).

Patches slowly diffuse testosterone through the skin and are replaced daily. The cost varies, as with all medication, from country to country, it is about $150/month in the US, and about 60 Euros in Germany.

Transdermal testosterone is available throughout the world under the brand names Andromen Forte, Androgel, Testogel and Testim. They are absorbed quickly when applied and produce a temporary drug depot in the skin which diffuses into the circulation, peaking at 4 hours and decreasing slowly over the rest of the day. The cost varies, as with all medication, from country to country, from as little as $50/month to about $280/month (in US Dollars).

Transdermal testosterone poses a risk of inadvertent exposure to others who come in contact with the patient's skin. This is most important for patients whose intimate partners are pregnant or those who are parents of young children as both of these groups are more vulnerable to the masculinizing effects of androgens. Case reports of significant virilization of young children after exposure to topical androgen preparations (both prescription and 'supplement' products) used by their caregivers demonstrates this very real risk.

Implants, as subcutaneous pellets, can be used to deliver testosterone (brand name Testopel). 6 to 12 pellets are inserted under the skin every three months. This must be done in a physician's office, but is a relatively minor procedure done under local anesthetic. Pellets cost about $60 each, so the cost is greater than injected testosterone when the cost of the physician visit and procedure are included. The primary advantages of Testopel are that it gives a much more constant blood level of testosterone yet requires attention only four times yearly.

Oral testosterone is provided exclusively as testosterone undecanoate. It is available in Europe and Canada, but not in the United States. Once absorbed from the gastrointestinal tract, testosterone is shunted (at very high blood levels) to the liver where it can cause liver damage (albeit very rarely) and worsens some of the adverse effects of testosterone, like lower HDL (good) cholesterol. In addition, the first pass metabolism of the liver also may result in testosterone levels too low to provide satisfactory masculinization and suppress menses. Because of the short terminal half-life of testosterone, oral testosterone undecanoate must be administered two to four times per day, preferably with food (which improves its absorption).

In 2003 the FDA approved a buccal form of testosterone (Striant). Sublingual testosterone can also be made by some compounding pharmacies. Cost for Striant is greater than other formulations ($180210/month). Testosterone is absorbed through the oral mucosa and avoids the 'first pass metabolism' in the liver which is cause of many of the adverse effect with oral testosterone undecanoate. The lozenges can cause gum irritation, taste changes, and headache but most side effects diminish after two weeks. The lozenge is 'mucoadhesive' and must be applied twice daily.

Synthetic anabolicandrogenic steroids (AAS), like nandrolone (as an ester like nandrolone decanoate or nandrolone phenylpropionate), are agonists of the androgen receptor (AR) similarly to testosterone but are not usually used in HRT for transgender men or for androgen replacement therapy (ART) in cisgender men. However, they can be used in place of testosterone with similar effects, and can have certain advantages like less or no local potentiation in so-called androgenic tissues that express 5-reductase like the skin and hair follicles (which results in a reduced rate of skin and hair-related side effects like excessive body hair growth and scalp hair loss), although this can also be disadvantageous in certain aspects of masculinization like facial hair growth and normal body hair growth). Although many AAS are not potentiated in androgenic tissues, they have similar effects to testosterone in other tissues like bone, muscle, fat, and the voice box. Also, many AAS, like nandrolone esters, are aromatized into estrogens to a greatly reduced extent relative to testosterone or not at all, and for this reason, are associated with reduced or no estrogenic effects (e.g., gynecomastia). AAS that are 17-alkylated like methyltestosterone, oxandrolone, and stanozolol are orally active but carry a high risk of liver damage, whereas AAS that are not 17-alkylated, like nandrolone esters, must be administered by intramuscular injection (via which they act as long-lasting depots similarly to testosterone esters) but have no more risk of liver damage than does testosterone.

For the sake of clarification, it should be noted that the term "anabolicandrogenic steroid" is essentially synonymous with "androgen" (or with "anabolic steroid"), and that natural androgens like testosterone are also AAS. These drugs all share the same core mechanism of action of acting as agonists of the AR and have similar effects, although their potency, pharmacokinetics, oral activity, ratio of anabolic to androgenic effects (due to differing capacities to be locally metabolized and potentiated by 5-reductase), capacity for aromatization (i.e., conversion into an estrogen), and potential for liver damage may all differ.

Dihydrotestosterone (DHT) (referred to as androstanolone or stanolone when used medically) can also be used in place of testosterone as an androgen. The availability of DHT is limited; it is not available in the United States or Canada, for instance, but it is available in certain European countries, including the United Kingdom, France, Spain, Belgium, Italy, and Luxembourg.[5] DHT is available in formulations including topical gel, buccal or sublingual tablets, and as esters in oil for intramuscular injection.[6] Relative to testosterone, and similarly to many synthetic AAS, DHT has the potential advantages of not being locally potentiated in so-called androgenic tissues that express 5-reductase (as DHT is already 5-reduced) and of not being aromatized into an estrogen (it is not a substrate for aromatase).

In all people, the hypothalamus releases GnRH (gonadotropin-releasing hormone) to stimulate the pituitary to produce LH (luteinizing hormone) and FSH (follicle-stimulating hormone) which in turn cause the gonads to produce sex steroids. In adolescents of either sex with relevant indicators, GnRH analogues, such as leuprorelin can be used to suspend the advance of sex steroid induced, inappropriate pubertal changes for a period without inducing any changes in the gender-appropriate direction. GnRH analogues work by initially over stimulating the pituitary then rapidly desensitizing it to the effects of GnRH. Over a period of weeks, gonadal androgen production is greatly reduced. There is considerable controversy over the earliest age, and for how long it is clinically, morally and legally safe to do this. The Harry Benjamin International Gender Dysphoria Association Standards of Care permit from Tanner Stage 2, but do not allow the addition of gender-appropriate hormones until 16, which could be five or more years. The sex steroids do have important other functions. The high cost of GnRH analogues is often a significant factor.

Antiestrogens (or so-called "estrogen blockers") like aromatase inhibitors (AIs) (e.g., anastrozole) or selective estrogen receptor modulators (SERMs) (e.g., tamoxifen) can be used to reduce the effects of high levels of endogenous estrogen (e.g., breast development, feminine fat distribution) in transgender men. In addition, in those who have not yet undergone or completed epiphyseal closure (which occurs during adolescence and is mediated by estrogen), antiestrogens can prevent hip widening as well as increase final height (estrogen limits height by causing the epiphyses to fuse).

5-Reductase inhibitors like finasteride and dutasteride can be used to slow or prevent scalp hair loss and excessive body hair growth in transgender men taking testosterone.[7] However, they may also slow or reduce certain aspects of masculinization, such as facial hair growth and normal male-pattern body hair growth.[7] A potential solution is to start taking a 5-reductase inhibitor after these desired aspects of masculinization have been well-established.[7]

Depo-Provera (depot medroxyprogesterone acetate, or DMPA) may be injected every three months just as it is used for contraception. Generally after the first cycle, menses are greatly reduced or eliminated. This may be useful for transgender men prior to initiation of testosterone therapy.

In those who have not yet undergone or completed epiphyseal closure, growth hormone can be administered, potentially in conjunction with an aromatase inhibitor or a GnRH analogue, to increase final height.

The main effects of HRT of the FTM type are as follows:[8]

Many transgender men are unable to pass as cisgender men without hormones. The most commonly cited reason for this is that their voice may reveal them.

Facial changes develop gradually over time, and sexual dimorphism (physical difference between the sexes) tends to increase with age. Within a population of similar body size and ethnicity:

Frequently the first sign of endometrial cancer is bleeding in post-menopausal women. Transgender men who have any bleeding after the cessation of menses with androgen therapy should have an endometrial biopsy (and possibly an ultrasound) done to rule-out endometrial cancer.

A number of skeletal and cartilaginous changes take place after the onset of puberty at various rates and times. Sometime in the late teen years epiphyseal closure (in other words, the ends of bones are fused closed) takes place and the length of bones is fixed for life. Consequently, total height and the length of arms, legs, hands, and feet are not affected by HRT. However, details of bone shape change throughout life, bones becoming heavier and more deeply sculptured under the influence of testosterone. Many of these differences are described in the Desmond Morris book Manwatching.

The psychological changes are harder to define, since HRT is usually the first physical action that takes place when transitioning. This fact alone has a significant psychological impact, which is hard to distinguish from hormonally induced changes. Most trans men report an increase of energy and an increased sex drive. Many also report feeling more confident.

While a high level of testosterone is often associated with an increase in aggression, this is not a noticeable effect in most trans men. HRT doses of testosterone are much lower than the typical doses taken by steroid-using athletes, and create testosterone levels comparable to those of most cisgender men. These levels of testosterone have not been proven to cause more aggression than comparable levels of estrogen. It is assumed that the effect of the start of physical treatment is such a relief, and decreases pre-existing aggression so much, that the overall level of aggression actually decreases.

Some transgender men report mood swings, increased anger, and increased aggressiveness after starting androgen therapy. Many transgender men, however, report improved mood, decreased emotional lability, and a lessening of anger and aggression.

During HRT, especially in the early stages of treatment, blood work should be consistently done to assess hormone levels and liver function.

Israel et al. have suggested that for pre-oophorectomy trans men, therapeutic testosterone levels should optimally fall within the normal male range, whereas estrogen levels should optimally fall within the normal female range. Before oophorectomy, it is difficult and frequently impractical to fully suppress estrogen levels into the normal male range, especially with exogenous testosterone aromatizing into estrogen, hence why the female ranges are referenced instead. In post-oophorectomy trans men, Israel et al. recommend that both testosterone and estrogen levels fall exactly within the normal male ranges. See the table below for all of the precise values they suggest.[15]

The optimal ranges listed for testosterone only apply to individuals taking bioidentical hormones in the form of testosterone (including esters) and do not apply to those taking synthetic AAS (e.g., nandrolone) or dihydrotestosterone.

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Hormone replacement therapy (female-to-male) - Wikipedia

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