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ALL ARTICLES AND PRODUCT INFORMATION PROVIDED ON THIS WEBSITE ARE FOR INFORMATIONAL AND EDUCATIONAL PURPOSES ONLY. The products offered on this website are furnished for in-vitro studies only. In-vitro studies (Latin: in glass) are performed outside of the body. These products are not medicines or drugs and have not been approved by the FDA to prevent, treat or cure any medical condition, ailment or disease. Bodily introduction of any kind into humans or animals is strictly forbidden by law.

Is Sermorelin Worth It?

Sermorelin Acetate and Aging

Growth hormone is a Goldilocks hormone, which is to say that it has an optimal level for producing the best outcomes. Too much GH increases morbidity and mortality, but so does too little. There is good evidence to suggest that at least part of the reason we age is because growth hormone levels decline over time, leaving us with sub-optimal levels of this important messenger. This decline in GH levels is referred to as somatopause and it has become a major focus of anti-aging science and research.

Somatopause is defined by the common symptoms we associate with aging: difficulty maintaining muscle mass, increased fat deposition, loss of bone density, declining energy and libido, higher cholesterol levels, and changes in skin texture and elasticity. Exercise helps to prevent these aging effects precisely because it keeps GH levels high, but more and more research suggests that exercise can only do so much to offset the roughly 40% decline in GH levels that occurs between the ages of 20 and 701. Supplementation may, in fact, be necessary to achieve optimal GH levels. This, ironically, increases exercise capacity, which makes it easier to maintain GH levels moving forward.

It was initially thought that Sermorelin and similar peptides simply reduced the effects of aging without actually prolonging life. For instance, Sermorelin improved muscle mass and body composition, but researchers thought it unlikely that the peptide could help us live longer. Research in mice, however, shows that Sermorelin, specifically, does improve longevity. The improvement is interesting however, as the research revealed a dramatic increase in average life expectancy but no change in maximum life expectancy2.

The above research is consistent with the idea that Sermorelin helps to maintain optimal body chemistry and thus maximizes lifespan. It does not extend maximum life expectancy, but it does help more individuals to get closer to their maximum lifespan. What is more, Sermorelin improves health and general function, meaning that individuals are more active and functional during their extended lives.

The benefits of Sermorelin in reducing the effects of aging include, but are not limited to:

• improved metabolism,

• improved body composition (more muscle and less fat),

• improved immune function,

• enhanced wound healing,

• better cardiac function, and

• improves sleep.

MK 677 Research Benefits

MK 677 Benefits

MK 677 (a.k.a. Ibutamoren, Oratrope, Crescendo) is a selective ghrelin (growth hormone secretagogue) receptor agonist. Research shows that it increases secretion of growth hormone (GH) and insulin-like growth factor 1 (IGF-1). Research has shown the major MK 677 benefit is that it activates the growth hormone axis without increasing levels of cortisol. MK 677 promotes a lean body composition by favoring muscle and bone deposition while simultaneously increasing fat burning. It is being investigated as a potential treatment for GH deficiency, certain bone and muscle conditions, disordered sleep, and as an appetite stimulant.

MK 677 Does Not Increase Cortisol

Cortisol is a steroid hormone known to suppress inflammation and increase the production of sugar in the liver. It is an important hormone for immune function and electrolyte balance, but too much of it leads to fat deposition, bone loss, high blood sugar, immune suppression, and muscle wasting. Some growth hormone secretagogue receptor agonists can increase cortisol levels, which dampens their positive effects. One MK 677 benefit, a result of its high specificity, is that it does not increase cortisol levels. Thus, the benefits of MK 677 in stimulating the GH axis are not offset by concomitant stimulation of cortisol release.

Tesamorelin vs Ipamorelin

Tesamorelin and Ipamorelin are both peptide-based therapeutics that belong to the class of growth hormone-releasing peptides (GHRPs). They are used for different purposes and have distinct receptor binding properties, but because they both affect natural growth hormone (GH) levels, they have similar effects in many respects. Both peptides have seen renewed research interest, however, thanks to a boom in the weight loss field led by peptide compounds like semaglutide and liraglutide. While both Tesamorelin and Ipamorelin are associated with changes in body composition, fat mass, and lean body mass, there is a great deal more to what these peptides can do.

Tesamorelin vs. Ipamorelin: Properties

Tesamorelin is approved for the treatment of HIV-associated lipodystrophy. This very narrow approval belies the peptide’s wider use as an agent for altering body composition. Research indicates that Tesamorelin can reduce fat mass, boost muscle and bone mass, improve peripheral nerve regeneration, and may even be useful in the treatment of mild cognitive impairment.

Ipamorelin, which underwent phase II clinical trials for the treatment of postoperative ileus, is known to be the most selective ghrelin receptor (aka growth hormone secretagogue receptor/GHSR) agonist yet discovered. It increases plasma growth hormone levels in animals but has no effect on prolactin, follicle-stimulating hormone, luteinizing hormone, thyroid-stimulating hormone, or adrenocorticotropic hormone levels. The astounding specificity of Ipamorelin makes it a highly useful peptide for studying the effects of increased GH levels with confounding results by elevating levels of other hormones.

Sermorelin, Sleep and the Brain

Fifteen years ago, orexins were identified as central regulators of energy homeostasis. Research indicates that orexins are key modulators of the sleep-wake cycle and that these neuropeptides also affect feelings of satiety and hunger. Given their role in energy homeostasis, it was hypothesized that orexin levels are likely regulated, at least in part, by the growth hormone axis. Recent research supports this fact and suggests that growth hormone releasing hormone analogues, such as sermorelin, may be effective in treating conditions in which orexin release is dysfunctional (e.g. narcolepsy) [1].

MK677 vs Ipamorelin

MK677 and Ipamorelin are both selective agonists of the ghrelin receptor. Ipamorelin is a peptide analogue of ghrelin whereas MK677 is an unusual molecule that doesn’t fit into any specific category (it isn’t a peptide). These two compounds, while affecting a similar receptor, have different properties and produce different biochemical results. Many people are interested in the differences between MK677 vs Ipamorelin. Below is a look at how these compounds differ as well as how they are alike.

MK677 vs Ipamorelin

MK677, also known as Ibuatmoren and Oratrope, is an orally active, non-peptide, selective agonist of the ghrelin receptor. MK677 shares no structural similarities with ghrelin and therefore no structural similarities with Ipamorelin. Research shows that MK677 increases the secretion of growth hormone (GH) and insulin-like growth factor-1 (IGF-1) without affecting cortisol levels. It is currently under investigation for the treatment of growth hormone deficiency, muscle wasting, bone wasting, and appetite stimulation. MK677 has a long half-life and once-daily dosing in most trial settings.

Ipamorelin is a peptide analogue of ghrelin that stimulates the secretion of GH. It is among the most selective of ghrelin analogs with research revealing no effect on ACTH, prolactin, follicle-stimulating hormone, luteinizing hormone, thyroid stimulating hormone, or cortisol levels. Ipamorelin has been investigated in the treatment of GH deficiency, muscle wasting, and post-surgical ileus. It has also been the subject of numerous clinical trials for its ability to increase bone strength and mineralization.

BPC-157 vs TB-500

BPC-157 vs TB-500

BPC-157 and TB-500 are both potent healing peptides with vast amounts of research investigating their properties and potential uses. Both are also synthetic derivatives of naturally occurring proteins that have been modified to enhance their already abundant features. Both peptides have been shown to improve immune function, enhance healing throughout the body, and even thwart the ravages of age in some ways. Still, BPC-157 vs TB-500 is a valid comparison as these two peptides are not the same and do not share all of the same functions. Below is a look at why someone might choose BPC-157 over TB-500 or vice versa. 

BPC-157 vs TB-500: General Wound Healing

Both TB-500 and BPC-157 have been shown to accelerate wound healing and tissue repair. BPC-157, a derivative of body protection compound (BPC), has a dose-dependent effect on the growth and migration of fibroblasts, the cells responsible for extracellular matrix repair[1]. TB-500, a derivative of thymosin beta-4 (Tβ-4) has a similar effect that it produces by manipulating actin filaments. Actin is a protein that plays central roles in cell reproduction and migration. Research shows that TB-500 can increase the rate of fibroblast growth and migration as well as boost health and migration of cells of the immune system.

Peptides for Eyesight Research

One of the most prominent researchers in the field of peptides, Professor Vladimir Khavinson, has focused a great deal of his career on how peptides can be used to thwart the effects of aging. Loss of eye function is something that affects nearly everyone as they age, but it can also result from a number of disease processes, from diabetes to macular degeneration. Professor Khavinson’s research has found that a specific peptide complex isolated from cattle retina, referred to as retinalamin, can actually stimulate retinal function and help preserve vision. Retinalamin isn’t the only peptide preparation found to have benefits in the eye, however. Epithalamin, cortexin, salvinor, and thymalin have all shown potential benefits in eyesight research in different ways[1].

Peptides for Eyesight Research: Tissue Preparations

There are two basic approaches to the discovery and investigation of peptides that might be useful in preserving and protecting eyesight. The first is to look at preparations from specific tissues to determine if they have any benefit. This approach has been favored in the East by researchers like Professor Khavinson because it provides a means of testing a large number of peptides in a single go. Basically, a peptide cocktail is extracted from a specific tissue, like the thymus gland, and is then used in research to determine if it has any effect on eyesight. If a tissue proves to be beneficial, it is further purified to determine if one or a handful of the peptides derived from it are responsible for most of the effects. Examples of such peptide cocktails include the following.

The Research Effects of TB-500 on Tissue Growth and Brain Injury

TB-500 is also known as thymosin beta 4 (TB4). Thymosin Beta 4 has been found, in animal models, to play a central role in controlling the structure of cells. By improving cell structure, TB-500 is thought to aid in wound healing, improve cell responses to stress, and even help cells to live longer. Scientific animal research studies have shown that TB-500’s role in regulating cell structure may eventually make it a leading therapeutic in wound healing, blood vessel repair, and even ocular (eye) repair.

Research has shown that when it comes to brain health, there are few drugs, supplements, or diets that make much difference. Unfortunately, the brain has remained a mystery to medical science and thus efforts to determine how to keep the brain healthy have been hindered. Science can tell us only that regular exercise and a relatively meat-free diet are associated with long-term brain health. There may, however, be some new evidence regarding thymosin beta 4 (also known as TB-4, or TB-500) and its impact on neural health.

Thymosin Beta 4

TB-500 (TB-4) is a naturally occurring peptide that is known to produce a vast array of healing and regenerative effects. It appears to promote everything from bone remodeling and growth after fracture to healing of heart muscle after a myocardial infarction (heart attack). Recent research in rats now suggests that TB-500 (TB-4) may improve neurological outcomes after stroke or brain damage.

Peptide Research for Neurocognitive Improvement.

Cognition is a complex system encompassing processes such as episodic memory, working memory, executive function/inhibition, spatial learning, language/vocabulary comprehension, processing speed, and language/reading decoding. Changes in synaptic plasticity, the ability of the brain to change and adapt to new information, can be short lived from milliseconds to years. Short lived forms include facilitation, augmentation, and potentiation which enhances neurotransmitter release.

These dynamic changes represent the molecular basis for learning and memory. This synaptic plasticity can be influenced by several factors e.g., aging, diseases (obesity, diabetes, hypertension, dyslipidemia), toxins (smoking and alcohol), and exercise. Aging has been estimated to trigger performance decline with an incidence of mild cognitive impairment of 21.5–71.3 per 1000 person-years). Cortical thickness and subcortical volume are shrinking 0.5–1% annually as a morphological sign of cognitive decline with plaques and axonal degeneration. Dementia is diagnosed when the acquired cognitive impairment has become severe enough to compromise social and/or occupational functioning with increasing prevalence.

Worldwide, around 50 million people have dementia and, with one new case every three seconds, the number of people with dementia is set to triple by 2050. Thus, there is a huge need for new research in order to combat the above-mentioned metrics. The peptides below have undergone extensive research to help aid in the improvement for our neurocognitive system.

Selank

Both Selank and Semax are melanocortin’s and have pleiotropic effects involved in brain health and function. Selank by itself has traditionally been prescribed for anxiety and depression. Selank has pronounced anxiolytic activity and acts as a stable neuropsychotropic, antidepressant, and anti-stress medication.

Semax

Semax is used as a therapeutic with pathologies related to brain circulation dysfunction. As a combination, Selank/Semax has applications in improving learning processes, exploratory behavior, regeneration and development, nociceptive and in amatory processes, accelerate nerve regeneration and improve neuromuscular performance and overall neural health.

What is Efferocytosis?

When Dead Cells Don’t Get Cleaned Up, Diseases Emerge:

“This process, termed efferocytosis, is critical for the prevention of autoimmune and inflammatory disorders, and persistence of dead cells in tissue is characteristic of many human autoimmune diseases, notably systemic lupus erythematosus.” (3)“Aberrations in efferocytosis are associated with numerous inflammatory pathologies, including atherosclerosis, cancer and infections. The recent exciting discoveries defining the molecular machinery involved in efferocytosis have opened many avenues for therapeutic intervention, with several agents now in clinical trials.” (5) 

Definition of Efferocytosis:

“In cell biology, efferocytosis is the process by which apoptotic cells are removed by phagocytic cells. It can be regarded as the ‘burying of dead cells’.” (1)

“Efferocytosis is a term derived from the Greek (meaning to carry the dead to the grave), and refers to the phagocytic engulfment of a cellular corpse. Both professional phagocytes (e.g. macrophages) and non-professional (e.g. neighboring) cells participate in efferocytosis.” (2)

Efferocytosis In Depth, The 4 Stages:

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