I have had a new arthritis inflammation episode going on all week. Two days ago a friend gave me a jar of cherry juice to drink, because Cherries have something in them that treats diabetes and arthritis. I drank about 4 ounces of it that night, and the next morning I noticed significant reduction in arthritis inflammation, although it might have been a coincidence. So I did some research and found that cherries belong to a family of stone fruit
Prunus, which includes apricots, which might explain why apricot ale has been helping me. This means other prunus species of might be useful as well, such as: plums, cherries, peaches, nectarines, apricots and almonds.
The 50 or so grams of sugar content in cherry juice is disturbing, so I plan to look into hard ciders from the fruit of the various prunus species, because the fermentation that makes cider hard reduces the sugar content to from 50 grams 10-20 grams in 8oz (237ml). I also plan to pickup some almonds to eat.
Chemicals Found In Cherries May Help Fight DiabetesChemists have identified a group of naturally occurring chemicals (
Anthocyanin) abundant in cherries that could help lower blood sugar levels in people with diabetes. In early laboratory studies using animal pancreatic cells, the chemicals, called anthocyanins, increased insulin production by 50 percent.
Eating cherries lowers risk of gout attacks by 35%, study suggestsAnthocyanins are implicated both in helping diabetes and reducing inflammation.
Marathon runners should pick cherries for speedy recoveryAnthocyanin
In addition to their role as light-attenuators, anthocyanins also act as powerful antioxidants. However, it is not clear whether anthocyanins can significantly contribute to scavenging of free radicals...
Plants rich in anthocyanins are Vaccinium species, such as blueberry, cranberry, and bilberry; Rubus berries, including black raspberry, red raspberry, and blackberry; blackcurrant, cherry, eggplant peel, black rice, Concord grape, muscadine grape, Black raspberry, Wild blueberry, Purple corn, Norton grape, red cabbage, and violet petals. Red-fleshed peaches are rich in anthocyanins. The highest recorded amount appears to be specifically in the seed coat of black soybean (Glycine max L. Merr.) containing some 2,000 mg per 100 g[15] and in skins and pulp of black chokeberry (Aronia melanocarpa L.). Anthocyanins can also be found in naturally ripened olives,[22][23] and are partly responsible for the red and purple colors of some olives.
Potential food value
Anthocyanins are considered secondary metabolites as a food additive with E number E163 (INS number 163); they are approved for use as a food additive in the EU,[34] Australia and New Zealand.[35]
Although anthocyanins are powerful antioxidants in vitro,[36] this antioxidant property is unlikely to be conserved after the plant is consumed. As interpreted by the Linus Pauling Institute and European Food Safety Authority, dietary anthocyanins and other flavonoids have little or no direct antioxidant food value following digestion.[37][38][39] Unlike controlled test-tube conditions, the fate of anthocyanins in vivo shows they are poorly conserved (less than 5%), with most of what is absorbed existing as chemically modified metabolites that are rapidly excreted.[40]
The increase in antioxidant capacity of blood seen after the consumption of anthocyanin-rich foods may not be caused directly by the anthocyanins, but instead may result from increased uric acid levels derived from metabolism of flavonoids.
Research on health benefits
General research
Richly concentrated as pigments in berries, anthocyanins were the topics of research presented at a 2007 symposium on health benefits that may result from berry consumption.[43]
According to a 2009 study: "A growing body of evidence suggests anthocyanins and anthocyanidins may possess analgesic properties in addition to neuroprotective and anti-inflammatory activities".[44]
In vitro, anthocyanins possess MAO inhibitory activity for both MAO-A and MAO-B; MAO function is connected to neurodegenerative diseases, depression, and anxiety. The relevance to humans of anthocyanins and MAO activity requires further research, however.[45]
Working under 2 principles today.
1) Fermentation consumes carbs
2) Cherries are prunus species, and there are other species of prunus than just cherries, therefore it is reasonable to consume other prunus species other than just cherries.
So, I went to the grocery store and bought all of the ciders that I could find made with prunus species. It came to 2 cherry ciders (Samuel Adams Cherry Wheat and Samuel Smith organic cherry ale) and 1 beer that contained apricots (
Pyramid Apricot Ale). I also bought a bag of almonds.
I drank one 12oz bottle of the beer containing apricots, and drank 8oz of the cherry juice a friend gave me. I have been relatively inflammation-free all day.
The information about cherries and prunus species having anti-inflammatory properties explains why my inflammation episodes respond so positively to the consumption of Pyramid Apricot Ale.
Gene Regulation & Molecular Biology
Betalains, the other red pigment
Roses are red and beets are red for completely different reasons. Virtually all flowering plants contain one of two mutually exclusive and unrelated red/purple pigment pathways, anthocyanins or betalains. The anthocyanin biosynthetic and regulatory network has been heavily studied and occurs in the vast majority of taxa including roses, Arabidopsis, and maize. Betalains on the other hand are restricted to certain families of a single order, the Caryophyllales, where they assume the roles of anthocyanin pigments in all biological contexts. The betalain families contain crop species including Beets, Spinach, Amaranthus, Quinoa, and Prickly Pear cactus.
While anthocyanins are based on phenylalanine, betalains derive from tyrosine. Only a single betalain biosynthetic gene/enzyme, and no regulators, have been reported to date. We have recently identified a novel cytochrome P450 that is absolutely required to make red betalain pigments. Without this P450, beets only make yellow betaxanthin pigments. This P450 locus corresponds to the beet R locus identified by Keller more than 75 years ago. In addition, we have identified a MYB-type transcription factor that activates the biosynthetic genes in the betalain network. Phylogenetic analysis of this MYB places it in the anthocyanin MYB clade indicating that is was co-opted to regulate betalains. We will present analysis of these genes using overexpression, Virus Induced Gene Silencing, and mutant complementation in beet, and expression of the betalain pathway in Arabidopsis.