dsade
NutraPlanet Fanatic
I should have reserved more than one space. Had to make a new thread.
BMP 2023 Write-Up
Intro
"Nature...uh...finds a way." ~ Ian Malcolm
Dinosaurs. Massive eating machines. Strong, savage, and extinct.
Though we still don't know exactly what happened to them, generally we can zero in on a major factor. When you’re a huge, muscled beast, you require a LOT or resources just to maintain your existence, not to mention grow. Remove or reduce the resources and suddenly that gigantic physique becomes a liability.
And what survived? What came to dominate next? Initially it was the scurrying, furry little mammals. Small, quick and able to maintain their metabolism on very little. Though again they started to trend massive, culminating with mammoths, giant cave bears, huge prehistoric rhinos, and sabre-toothed cats – all of which eventually also disappeared.
By my speculation, Nature is pretty badass at controlling for efficiency, and has developed biological mechanisms to both grow and restrict that growth. The bigger you are, the more resources you consume - so let's put a governing mechanism on how big you can get.
In humans, and other mammals, we have multiple pathways to trigger growth. As well, we have multiple pathways to restrict, and even reverse that same growth. Think of it like a biological Overton Window.
Quite a while back I was walking through downtown Columbus and watching the erection of some tallish buildings, the hardened steel structure resembling a skeleton - everything else built upon that. It got me thinking about the human body. Bone, once thought to be nothing but a stiff dead mineral structure, began to reveal itself as a dynamic organ system, sending and receiving signals from the environment and changing accordingly. Endocrine signals coming and going, making sure our bodies were dialed into efficient survival. That is where my research began, and what I eventually found confirmed that I was in the right place.
BMP / TGF-b1 / SMAD
The TGF-b1 superfamily of signaling molecules expands as Transforming Growth Factor, and that is what most of this class does – Transforms. It directs stem cells (or satellite cells) into fully differentiated cells like Muscle, Bone and Adipose. It can also transform cells into destructive types, like Osteoclasts, which leech Calcium from bones and dump it into the bloodstream.
As well, Myostatin and the Activins function to limit, and sometimes reverse, tissue growth – reverting our beloved anabolism into catabolism. In some tissues, like the heart, this is essential to maintaining health by making sure the heart doesn’t become too enlarged, but it certainly does frustrate our desire to be muscular beasts.
BMP
BMP, for the sake of our new groundbreaking formula, stands for Body Modified Phenotype.
For the sake of the physiology it happens to be targeting, it stands for Bone Morphogenetic Protein. Thought initially to simply affect bone turnover, within the last 15 years or so it has been determined to be one of the major master control pathways that also influence other important things - like muscle mass and joint health. There are quite a few BMPs, some of which we still know very little about, but for our updated formula you should be familiar with 3 sub-types.
BMP 2, 4, and 7
BMP2
BMP2 plays a major role in bone and cartilage formation, as well as Osteoblast differentiation. Differentiation is an important point here, as will be discussed below. BMP2 is the secondary, but no less important target of this formula, with BMP7 being the primary target. BMP2 also affects tendons and ligaments, helping to heal them. In several studies, use of BMP2 and BMP7 was able to drastically heal torn rotator cuff injuries without surgery.
BMP4
BMP4, while still important, is comparatively our lowest priority of the three for targeting muscle growth. Like the other BMPs it is involved in bone and cartilage development, although more specifically for teeth and limbs, as well as being a key player during embryonic development.
BMP 2023 Write-Up
Intro
"Nature...uh...finds a way." ~ Ian Malcolm
Dinosaurs. Massive eating machines. Strong, savage, and extinct.
Though we still don't know exactly what happened to them, generally we can zero in on a major factor. When you’re a huge, muscled beast, you require a LOT or resources just to maintain your existence, not to mention grow. Remove or reduce the resources and suddenly that gigantic physique becomes a liability.
And what survived? What came to dominate next? Initially it was the scurrying, furry little mammals. Small, quick and able to maintain their metabolism on very little. Though again they started to trend massive, culminating with mammoths, giant cave bears, huge prehistoric rhinos, and sabre-toothed cats – all of which eventually also disappeared.
By my speculation, Nature is pretty badass at controlling for efficiency, and has developed biological mechanisms to both grow and restrict that growth. The bigger you are, the more resources you consume - so let's put a governing mechanism on how big you can get.
In humans, and other mammals, we have multiple pathways to trigger growth. As well, we have multiple pathways to restrict, and even reverse that same growth. Think of it like a biological Overton Window.
Quite a while back I was walking through downtown Columbus and watching the erection of some tallish buildings, the hardened steel structure resembling a skeleton - everything else built upon that. It got me thinking about the human body. Bone, once thought to be nothing but a stiff dead mineral structure, began to reveal itself as a dynamic organ system, sending and receiving signals from the environment and changing accordingly. Endocrine signals coming and going, making sure our bodies were dialed into efficient survival. That is where my research began, and what I eventually found confirmed that I was in the right place.
BMP / TGF-b1 / SMAD
The TGF-b1 superfamily of signaling molecules expands as Transforming Growth Factor, and that is what most of this class does – Transforms. It directs stem cells (or satellite cells) into fully differentiated cells like Muscle, Bone and Adipose. It can also transform cells into destructive types, like Osteoclasts, which leech Calcium from bones and dump it into the bloodstream.
As well, Myostatin and the Activins function to limit, and sometimes reverse, tissue growth – reverting our beloved anabolism into catabolism. In some tissues, like the heart, this is essential to maintaining health by making sure the heart doesn’t become too enlarged, but it certainly does frustrate our desire to be muscular beasts.
BMP
BMP, for the sake of our new groundbreaking formula, stands for Body Modified Phenotype.
For the sake of the physiology it happens to be targeting, it stands for Bone Morphogenetic Protein. Thought initially to simply affect bone turnover, within the last 15 years or so it has been determined to be one of the major master control pathways that also influence other important things - like muscle mass and joint health. There are quite a few BMPs, some of which we still know very little about, but for our updated formula you should be familiar with 3 sub-types.
BMP 2, 4, and 7
BMP2
BMP2 plays a major role in bone and cartilage formation, as well as Osteoblast differentiation. Differentiation is an important point here, as will be discussed below. BMP2 is the secondary, but no less important target of this formula, with BMP7 being the primary target. BMP2 also affects tendons and ligaments, helping to heal them. In several studies, use of BMP2 and BMP7 was able to drastically heal torn rotator cuff injuries without surgery.
BMP4
BMP4, while still important, is comparatively our lowest priority of the three for targeting muscle growth. Like the other BMPs it is involved in bone and cartilage development, although more specifically for teeth and limbs, as well as being a key player during embryonic development.
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