[Latin Name] Glycine max (L.) Mere

[Plant Source] China

[Specifications] Isoflavones 20%, 40%, 60%

[Appearance] Brown yellow fine powder

[Plant Part Used] Soybean

[Particle size] 80 Mesh

[Loss on drying] ≤5.0%

[Heavy Metal] ≤10PPM

[Storage] Store in cool & dry area, keep away from the direct light and heat.

[Package] Packed in paper-drums and two plastic-bags inside.

[Active ingredients]

[What is Soy Isoflavones]

Non-genetically modified soybean refined soy isoflavones, a natural nutritional factors for a variety of important physiological activity is a natural plant estrogen, easily absorbed by the body.

Isoflavones are phytoestrogens planned economy a weak hormones, soy is the only valid source of human access to  isoflavones. In the case of strong estrogen physiological activity, isoflavones can play the role of anti-estrogen. Isoflavones very prominent anti-cancer properties, can hinder the growth and spread of cancer cells and only cancer, isoflavones had no impact on normal cells. Isoflavones has an effective of anti-oxidant.

[Functions]

1. Lower Cancer Risk In Men and Women;

2. Use In Estrogen Replacement Therapy;

3. Lower Cholesterol and Reduce Heart Disease Risk;

4. Relieve women menopause syndrome, guard against osteoporosis;

5. Protect human body from destroy by free-radical to advance immunity;

6. Be healthy for stomach and spleen and protect nerve system;

7. Reduce cholesterin thickness in human body, prevent and cure cardiovascular disease;

8. Prevent cancer and counteract cancer£¬for example, prostate cancer, breast cancer.

[Application] Used in Lower cancer risk, estrogen replacement therapy, advance immunity, prevent and cure cardiovascular disease.

Here are two easy, holiday cranberry crumble recipes. They are truly OMGee good enough to serve at all of your holiday gathering this season.

Full Recipe:
Apple-Cranberry Crumble
(Adapted from The Healthiest Diet on the Planet)
Serves 8 to 10

TOPPING
1/2 cup rolled oats
1/2 cup chopped walnuts OR almonds
1/4 cup whole wheat pastry flour
1/2 teaspoon cinnamon
2 tablespoon liquid sweetener (agave, maple syrup, date syrup)

FILLING
3 cups peeled, cubed apples (Bosc pears work, too)
2 cups fresh or frozen cranberries, thawed
1/3 cup brown sugar
2 1/2 tablespoons cornstarch or arrowroot powder

Preheat oven to 350ºF.
Mix topping ingredients together in a medium bowl; add liquid sweetener of choice and mix again until crumbly. Set aside.

Toss apples, cranberries, brown sugar, and cornstarch in a large bowl until well mixed. Transfer to a deep-dish dessert pan and sprinkle crumble over the top. Bake for 40-50 minutes, until the filling is bubbly and the top is slightly browned. Cool for 1 hour (that’s the hardest part of this recipe).
—————————-
The Healthiest Diet on the Planet https://simpledailyrecipes.com/mcdougall-healthiestdiet

Ro’s Kitchen channel https://simpledailyrecipes.com/roskitchen

Table of Contents:
00:00 L1.1: Cells By the Numbers
00:28 In this lecture …
01:02 Why Start with the Numbers?
01:59 Why Start with the Numbers?
02:28 Size & Volume
03:30 E. coli: a frame of reference
03:55 Mass
04:52 Composition
06:38 Mass of 1 Cell Changes with Time
07:56 # of molecules / cell
09:37 Concentration
10:33 Time
13:00 Time
14:56 Manufacturing – Raw Materials & Costs
16:58 Energy Costs
17:55 Pressure & Forces
20:14 Resources …
21:11 Coming up…

This video is part of the nanoHUB-U course “Biological Engineering: Cellular Design Principles” currently offered on nanoHUB-U (https://nanohub.org/courses/biod) or on EdX (https://www.edx.org/course/biological-engineering-cellular-design-purduex-nano545x)

Cellular Design Principles is a five week course that explores the design principles underlying mechanisms of cellular and biomolecular functions such as cell architecture, energy storage and conversion, sensing and signaling, communication, time keeping, molecular synthesis, memory, and motility. Emphasis will be placed on the chemical, physical, and mathematical features that determine the performance of the biological device. Topics cover both cellular/biochemical processes and molecular/genetic circuits. Examples are presented from reverse engineering of natural systems and design of new synthetic systems.