Qaexl
08-08-2006, 04:47 PM
(Archive (http://hiddenstorehouse.com/somatic_way/index.php/Bone_breathing))
Background
Much of the background for "winter jade (http://hiddenstorehouse.com/somatic_way/index.php/Winter_jade)" comes from Dr. Robert Becker's book, The Body Electric (http://hiddenstorehouse.com/somatic_way/index.php?title=Body_Electric&action=edit). A more detailed discussion of that general topic can be found here (http://www.occultforums.com/showthread.php?t=25398). In summary, bones adapt to stress. When you stress a bone, it strengthen this. This is how bones can straighten out, or why the skeletons of longbow archers are distorted from "normal" skeletal structures.
The determination of what is stressing the bone is not chemical, but electrical. The bone is peizoelectric, and so when it is bent, the part that is being compressed produces a net charge. Due to the way the electrical currents work, the bones are formed from a semiconductor material. Callogen (organic) are laid together with apatite (inorganic) minerals. Molecularly, they produce "pegholes" where two atoms of Cu (copper) binds with the callogen and apatite. The copper not only keeps the apatite from falling off, it forms the "doping" for a PN diode junction.
In the case of a bone fracture, a disruption of the normal electrical fields triggers the sequence where bone reknits itself:
Bone cannot heal. That sounds like a conundrum but it's literally true. Fractures knit because new bone made from other tissues unites with the fracture ends. Although we sometimes speak of bone growth as part of fracture healing, the old, preexisting bone doesn't have the capacity to grow. As mentioned in Chapter 1, there are two tissues that produce new bone at a fracture site. One is the periosteum, the bone's fibrous covering. It's the cells of the periosteum innermost layer that have the power of osteogenesis, or boen formation. After a fracture, these cells are somehow turned on. They begin to divide and some of the daughter cells turn into osteoblasts, cells that make the collagen fibers of bone. Apatite crystals then condense out of the blood serum onto the fibers.
The other tissue that forms new bone to heal a fracture is the marrow. Its cells dedifferentiate and form a blastema, filling the central part of the fracture. The blastema cells then turn into cartilage cells and later into more osteoblasts. This process is true regeneration, following the same sequence of cell changes as the regrowing salamander limb. (Becker, pp 119-120) The other important implication of this is the curious property of diodes. Diodes have conduct electric current in one direction, but generally not in the other. (This is how the bone creates the differrent charges to determine where the stress point is, otherwise, the the strain and compression would cancel each other out).
When you run a current through it in forward bias, some of its energy gets turned into light and emitted from the surface. ... We found that bone was an LED. Like many such materials, it required an outside source of light before an electric current would make it release its own l ight, and the light it emitted was at an infrared frequency invisible to us, but the effect was consistent and undeniable. (ibid) Note that infrared is at a frequency we sense as warmth.
Finally, the surprise is that callogen, the basic structural material found in every single cell of the body (as cytoskelton) is the part of the bone that is peizoelectric. This means soft tissues with high density of callogen, such as tendons, ligaments, and fascia does some weird things with electrical fields when stretched or twisted. Callogen is the part of bone that makes it look off-white yellowish and rubbery. In contrast, the apatite looks white. And so, this brings up the references in traditions to this phenomena.
Background
Much of the background for "winter jade (http://hiddenstorehouse.com/somatic_way/index.php/Winter_jade)" comes from Dr. Robert Becker's book, The Body Electric (http://hiddenstorehouse.com/somatic_way/index.php?title=Body_Electric&action=edit). A more detailed discussion of that general topic can be found here (http://www.occultforums.com/showthread.php?t=25398). In summary, bones adapt to stress. When you stress a bone, it strengthen this. This is how bones can straighten out, or why the skeletons of longbow archers are distorted from "normal" skeletal structures.
The determination of what is stressing the bone is not chemical, but electrical. The bone is peizoelectric, and so when it is bent, the part that is being compressed produces a net charge. Due to the way the electrical currents work, the bones are formed from a semiconductor material. Callogen (organic) are laid together with apatite (inorganic) minerals. Molecularly, they produce "pegholes" where two atoms of Cu (copper) binds with the callogen and apatite. The copper not only keeps the apatite from falling off, it forms the "doping" for a PN diode junction.
In the case of a bone fracture, a disruption of the normal electrical fields triggers the sequence where bone reknits itself:
Bone cannot heal. That sounds like a conundrum but it's literally true. Fractures knit because new bone made from other tissues unites with the fracture ends. Although we sometimes speak of bone growth as part of fracture healing, the old, preexisting bone doesn't have the capacity to grow. As mentioned in Chapter 1, there are two tissues that produce new bone at a fracture site. One is the periosteum, the bone's fibrous covering. It's the cells of the periosteum innermost layer that have the power of osteogenesis, or boen formation. After a fracture, these cells are somehow turned on. They begin to divide and some of the daughter cells turn into osteoblasts, cells that make the collagen fibers of bone. Apatite crystals then condense out of the blood serum onto the fibers.
The other tissue that forms new bone to heal a fracture is the marrow. Its cells dedifferentiate and form a blastema, filling the central part of the fracture. The blastema cells then turn into cartilage cells and later into more osteoblasts. This process is true regeneration, following the same sequence of cell changes as the regrowing salamander limb. (Becker, pp 119-120) The other important implication of this is the curious property of diodes. Diodes have conduct electric current in one direction, but generally not in the other. (This is how the bone creates the differrent charges to determine where the stress point is, otherwise, the the strain and compression would cancel each other out).
When you run a current through it in forward bias, some of its energy gets turned into light and emitted from the surface. ... We found that bone was an LED. Like many such materials, it required an outside source of light before an electric current would make it release its own l ight, and the light it emitted was at an infrared frequency invisible to us, but the effect was consistent and undeniable. (ibid) Note that infrared is at a frequency we sense as warmth.
Finally, the surprise is that callogen, the basic structural material found in every single cell of the body (as cytoskelton) is the part of the bone that is peizoelectric. This means soft tissues with high density of callogen, such as tendons, ligaments, and fascia does some weird things with electrical fields when stretched or twisted. Callogen is the part of bone that makes it look off-white yellowish and rubbery. In contrast, the apatite looks white. And so, this brings up the references in traditions to this phenomena.