These geologically ancient, long - lived, slow - growing and fragile reefs will suffer
reduced calcification rates and, as the aragonite saturation horizon moves towards the ocean surface, large parts of the oceans will cease to support them by 2100 (Feely et al., 2004; Orr et al., 2005; Raven et al., 2005; Guinotte et al., 2006).
These responses include impacts on calcification rates [18,19], immune function [20], reproduction and carryover effects in larval and juvenile stages of invertebrates [21], enhanced productivity in phytobenthos [22 — 25] but
reduced calcification and growth in calcareous algae [26 — 28].
This has been demonstrated in time - series studies of coral community calcification [17], and
reduced calcification in marine communities has been associated with natural CO2 seeps [18,19].
Source: Nature,
Reduced Calcification of Marine Phytoplankton in Response to Increased Atmospheric CO2, Issue 407 p. 364 -367
But in this study, «after adjusting for age, sex, race, education, smoking, and apnea risk,» the authors note, «longer measured sleep duration was associated with
reduced calcification incidence.»
Dissolving calcium carbonate (CaCO3) sands could greatly exacerbate reef loss associated with
reduced calcification but is presently poorly constrained.
«The algae
reduce the calcification only when it is costly for them — namely under ocean acidification,» says Professor Reusch.
So topical vasodilators and magnesium oil which
reduces calcification (in turn increasing blood flow!).
You can also add a few drops of magnesium oil which will help with hair loss by
reducing calcification of the hair follicles.
Strangely enough, although some researchers fret higher CO2 concentrations will
reduce calcification, it is the very process of calcification that results in the «alkalinity pump.»
The diminishing availability of carbonate ion -LRB--RRB-, and ensuing reduction in calcium carbonate (CaCO3) saturation states are widely reported to
reduce calcification in a wide range [11,12] of, but not all, calcifying organisms [13,14].
Doubling CO2 will
reduce calcification in aragonitic corals by 20 % -60 % (Kleypas et al., 1999; Kleypas and Langdon, 2002; Reynaud et al., 2003; Raven et al., 2005).
Not exact matches
In particular, cold waters of the Southern Ocean show higher concentrations of CO2 and lower in CaCO3, and this
reduces the availability of the carbonate required for the
calcification process.
They detected greater levels of calcified deposits and
reduced levels of a protein that inhibits
calcification in individuals with premature membrane rupture compared to a control group that underwent term cesarean sections.
In addition, reductions in
calcification from lowered pH in surface waters could
reduce phytoplankton sinking rates through loss of ballast (Hofmann and Schellnhuber, 2009), though this effect will depend on the ratio of the fraction of ballasted vs. un-ballasted fractions of the sinking POC.
Reduced food supply owing to lower POC fluxes could exacerbate these impacts because the metabolic cost of increased rates of
calcification become greater as pH declines (Wood et al., 2008).
Fetal neurosonography and magnetic resonance imaging (MRI) have also showed diffuse
calcification in the subcortical parenchyma and thalamic areas, ventriculomegaly, lissencephaly, and pachygyria (ie, smooth brains with
reduced gyral ridges).6 Nevertheless, to our knowledge, a systematic follow - up of clinical and morphological features of these cases along with anatomic and pathological descriptions associated with congenital ZIKV infection has not been reported.
First, there may be some factor not yet identified that can both
reduce sleep duration and increase
calcification.
These may be driven by physiological influences on the foraminiferal microenvironment; a novel explanation is also suggested for the
reduced δ11B - pH sensitivities observed in culture, based on variable
calcification rates.
During the entire period of simulation, net reef
calcification decreased although increasing seawater temperature mitigated effects of
reduced CO2 emission and the resulting decrease of the pH values on reef
calcification.
And it's not clear if trying to get more sleep can
reduce coronary artery
calcification.
In the large Rotterdam study looking at dietary data from 4,000 adults over a period of 7 - 10 years, researchers found that those with the highest intakes of vitamin K2 had a 52 %
reduced risk of severe arterial
calcification and a 57 % lower risk of dying from heart disease (27).
A large scale human study called the Rotterdam Study showed that people with the highest dietary intake of vitamin K2 had a 50 %
reduced risk of aortic
calcification and cardiovascular death than those with the lowest dietary intake.
First, both vitamin A56, 103 and ibandronate84 (a drug that also inhibits Warfarin toxicity)
reduce or eliminate the soft tissue
calcification and other toxic effects of vitamin D without substantially
reducing the vitamin D - induced hypercalcemia.
It could be that the nerves in my Dad's heart might be misbehaving because they are abnormal AND because they are being assaulted by stressors resulting from his very standard American diet such as systemic inflammation,
calcifications,
reduced blood viscosity,
reduced nitrous oxide, or any of the other chronic insults to our hearts and vascular system that results when we eat animal proteins, lots of fat, especially saturated fat, and highly processed junk plant foods.
In the Rotterdam Study, subjects consumed nearly ten times more K1 than K2; a high intake of K2
reduced the risk of severe arterial
calcification by 52 percent and
reduced heart disease mortality by 57 percent, while a high intake of K1 had no effect.21
Another study, following over 500 post-menopausal women, found that high dietary vitamin K2 intake, but probably not vitamin K1 (phylloquinone,) was associated with
reduced coronary
calcification.
The study concluded that higher vitamin K2 consumption
reduced arterial
calcification.
* It is also shown to prevent bone loss and promote bone integrity while significantly
reducing the incidence of arterial
calcification, promoting optimal cardiovascular function.
The goal of the massages / exercises is to
reduce fibrosis and
calcification of the scalp, whilst increasing blood flow and elasticity.
In the case of
calcification, however, they indicate that this process was
reduced, but by only up to 9 %.
The more energy is needed for
calcification, the less is available for other biological processes like growth or reproduction,
reducing the organisms» weight and overall competitiveness and viability.
Lower
calcification rates would
reduce the alkalinity pump,
reduce surface CO2 and increase the buffering capacity of surface waters.
Coral bleaching and slowing of coral
calcification already are causing mass mortalities, increased coral disease, and
reduced reef carbonate accretion, thus disrupting coral reef ecosystem health [40], [124].
Experimental evidence suggests that this decreasing pH will
reduce the calcium carbonate concentration, compromising the
calcification of the skeletons of marine organisms, such as corals and planktonic mollusks (pteropods).
* The rising CO2 content of the atmosphere may induce very small changes in the well - buffered ocean chemistry (pH) that could slightly
reduce coral
calcification rates; but potential positive effects of hydrospheric CO2 enrichment may more than compensate for this modest negative phenomenon.
A growing number of studies have demonstrated adverse impacts on marine organisms, including decreases in rates of coral
calcification,
reduced ability of algae and zooplankton to maintain protective shells, and
reduced survival of larval marine shellfish and fish [13], [14], [15].
Reduced larval
calcification in near - future ocean acidification conditions is also evident for the calcifying larvae of molluscs [87,88].
When
calcifications and plaque build up in the arteries, blood flow can be
reduced, and, if enough of these deposits build up, they can cause a heart attack or stroke.