[Latin Name]  Pinus pinaster.

[Specification] OPC ≥ 95%

[Appearance] Red brown fine powder

Plant Part Used: Bark

[Particle size] 80Mesh

[Loss on drying] ≤5.0%

[Heavy Metal] ≤10PPM

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

[Shelf life] 24 Months

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

[Net weight] 25kgs/drum

[What is Pine bark?]

Pine bark, botanical name Pinus pinaster, is a maritime pine native to southwest France that also grows in countries along the western Mediterranean.  Pine bark contains a number of beneficial compounds that are extracted from the bark in a way that doesn’t destroy or damage the tree.

[How does it work?]

What gives pine bark extract its notoriety as a powerful ingredient and super antioxidant is that it’s loaded with oligomeric proanthocyanidin compounds, OPCs for short. The same ingredient can be found in grape seeds, the skin of peanuts and witch hazel bark. But what makes this miracle ingredient so amazing?

While OPCs found in this extract are mostly known for their antioxidant-producing benefits, these amazing compounds exude antibacterial, antiviral, anticarcinogenic, anti-aging, anti-inflammatory and anti-allergic properties. Pine bark extract can help reduce muscle soreness and may help improve conditions relating to poor circulation, high blood pressure, osteoarthritis, diabetes, ADHD, female reproductive issues, skin, erectile dysfunction, eye disease and sports stamina.

Seems like it must be pretty amazing, but let’s look closer. The list goes on a bit further, as the OPCs in this extract may “inhibit lipid peroxidation, platelet aggregation, capillary permeability and fragility, and to affect enzyme systems,” which basically means it may be a natural treatment for many serious health conditions, such as stroke and heart disease.

[Function]

1. Lowers Glucose Levels, Improving Diabetic Symptoms
2. Helps Prevent Hearing Loss and Balance
3. Staves Off Infections
4. Protects the Skin from Ultraviolet Exposure
5. Decreases Erectile Dysfunction
6. Reduces Inflammation
7.  Helps Increase Athletic Performance

This video shows you the best way to get thinner and trimmer ankles, calves and thighs. To achieve this goal, you have to understand that your legs and thighs get larger because they accumulate fat cells below your skin. This is what gives you heavy thighs, thick legs, and even cankles. The one method known to work extremely well is applying fat cell reducing creams. These creams work by shrinking fat cells below the skin where you apply them. Like all products, some fat cell reducing creams are better than others. Of all the creams and lotions available, the fat cell reducing creams known to work best ALL contain Reductinol. Reductinol is a combination of synephrine and caffeine. When massaged into your skin, Reductinol gets absorbed by your fat cells, causing them to shrink and burn out. When that happens, your legs and thighs thin out, leaving you with thinner and slimmer ankles, calves and thighs. For most women, the results are like magic — slimming down their limbs in ways that dieting or exercise cannot even approach.

https://www.Be-Thin.com

(See https://nanohour.beckman.illinois.edu/Nanohour/Nanohour.html)

” A Tooth Problem: Biomodification of Dentin Matrices as Novel Strategy for Dental Therapies”

Prof. Ana Bedran-Russo (UIC College of Dentistry)

“It is estimated that in the United States, 350 million dental restorations
(fillings) are placed every year in dental offices. Sixty percent of those restorations
replace existing failed restorative treatments. The primary reason for failure of
dental restorations is secondary caries (decay), indicative of increased permeability
and debonding between tooth and restorative biomaterial. Current dental adhesive
restorative systems rely on the micromechanical retentions of restorations by
infiltrations of hydrophilic and hydrophobic resins into a collagen-rich surface on
dentin. Our laboratory at UIC has focused on understanding the tooth
biochemistry/biomechanics and explored biomimetic approaches for innovative
restorative/regenerative therapies. Specifically the interactions of olygomeric
proanthocyanidins agents (OPC) with dentin matrices to improve mechanical
properties and reduced biodegradation rates. This presentation will provide (1)
overview of challenges in the harsh oral environment (2) limitations of current
dental therapies and (3) mechanisms of interactions of OPC with type I collagen,
proteoglycans and matrix metalloproteinases (MMPs).”