NLPR3 Inflammasome Inhibitors:
BHB:
AUTOPHAGY:
CB2R:

Product Placement

❣ Chile in a Photography ❣
we're not kids anymore.

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@themicronut
NLPR3 Inflammasome Inhibitors:
BHB:
AUTOPHAGY:
CB2R:
Cholesterol Crystals and oxidized LDL: How are those formed though??
Functions of vitamin D (WageningenX: NUTR102x Nutrition and Health Part 2: Micronutrients and Malnutrition)
The classic role of vitamin D is to regulate calcium and phosphorus metabolism. By governing calcium metabolism, vitamin D contributes to the proper functioning of muscles and nerves, and plays a key role in bone formation and mineralization.
GENOMIC FUNCTION OF VITAMIN D
Calcitriol functions like a steroid hormone. To perform its biological roles, calcitriol binds to a specific receptor called the vitamin D receptor (VDR), which is located in the nuclei of target cells. The binding of calcitriol to VDR is followed by binding of VDR to the vitamin A-activated RXR receptor. The VDR-RXR complex binds to DNA and thereby turns on a large number of genes in a wide variety of tissues. These tissues include bone, kidney, and intestine—tissues involved in the maintenance of calcium homeostasis—as well as immune, endocrine, hematopoietic, skin, and tumor cells. For example, in the intestine calcitriol induces the production of several proteins including a calcium channel (TRPV6), calcium-binding proteins (calbindins), calcium pumps, an ATPase, and alkaline phosphatase, which are all involved in calcium absorption in the intestine.
More information about the role of vitamin D in calcium metabolism is provided in section 4.2.
EXTRA: ROLES OF VITAMIN D IN NON-CALCIFIED TISSUES
The fact that calcitriol and vitamin D receptors are present in tissues that aren’t directly involved in calcium metabolism suggests that vitamin D has other functions not related to calcium. In many cases, however, responses to calcitriol are observed at concentrations two to three orders of magnitude greater than circulating levels. It is thus possible that certain cells are dependent on local production of calcitriol. In this respect, it should be mentioned that recent research suggests that calcitriol can be made by activated macrophages, an important type of white blood cell. It has also been reported that calcitriol affects the proliferation, differentiation and immune function of white blood cells. Vitamin D receptors have also been identified in a variety of tumor cells. Experiments in the lab showed that at low concentrations, calcitriol stimulates growth, while at higher concentrations it inhibits proliferation and stimulates programmed cell death. Whether vitamin D really could affect immune status or cancer risk in humans is still being debated.
EXTRA: NON-GENOMIC FUNCTION OF VITAMIN D
In addition to regulating DNA, calcitriol is known to have so called non-genomic actions. In intestinal cells, calcitriol recruits membrane calcium transport proteins located in small cavities close to the cell surface, resulting in a rapid increase in calcium absorption before the (genomic) induction of calbindins. In some cells, calcitriol acts via cell-surface receptors and not via the nuclear VDR, which results in the extremely rapid opening of intracellular calcium channels and subsequent activation of an intracellular signaling cascade. This effect is thought to inhibit cell proliferation and promote cell differentiation.
c-peptide and insulin:
DNA “damagers” + HOW to minimize your exposure to them:
METABOLIC BYPRODUCTS: ROS generated by oxidative phosphorylation
ROS stress → DNA damage
Oxidative phosphorylation
Side by side comparison of ROS generation by using fat or carbs for energy
Mg++ || Vit K || Vit D
Mg++
SHORT TERM SURVIVAL: ATP synthesis involved enzymes
LONG TERM PROSPERITY: DNA Repair enzymes
Vit K (liver first → then periphery)
SHORT TERM SURVIVAL: Blood Coagulation (+gut serotonin platelets)
LONG TERM PROSPERITY: Prevent Calcification of arteries (Ca++ PO-)
Evolution Vs Individual:
“Although genetic variation is important for evolution, the survival of the individual demands genetic stability. “
Evolution demands polymorphism and it’s occurance through various means.
Individual fitness demands genome stability.
The eternal conflict.
Co-factors for DNA-repair enzymes/List of all DNA repair Enzymes:
(does microNUTRIENT scarcity compromise the DNA repair process?)
GLUCOSAMINE SUPP:
Glucosamine promotes osteogenic differentiation of dental pulp stem cells through modulating the level of the TGF beta receptor 1 .
HASHIMOTO’S:
ROS/ICAM-1 and lack of ANTIOXIDANTS:
Autoimmune thyroiditis and ROS.
ICAM-1 STATUS, ROS, ANTIOXIDANTS and INFLAMMATION:
HDL anti-inflammatory prperties, reduces ICAM-1:
ICAM-1 impairs bone healing
SELENIUM:
hashimotos
REST and DIGEST:
FIGHT or FLIGHT:
LECTINS:
IgA nephritis