(Persej) What is the substance that Weston Price named ‘activator X’? And here's a description of the activator X: ‘He determined that neither total hours of sunshine nor temperature was the chief controlling factor' in how much activator X was present in the milk. Rather, 'the factor most potent was found to be the pasture fodder of the dairy animals. Rapidly growing grass, green or rapidly dried, was most efficient'.’ So what is this activator X?
A: Information! Note the fact that grass of a certain nature provided this. Apply that principle to foods. Studies are most often of little value because subjects are self-selecting. A truly random group is almost never seen. Weighing and measuring constituents of a substance can be indicative if the potentials of information are taken into account. This is why pork is better for advanced humans than beef or many other meats. The information of the pig is more in line with the direction of the human. The meat of the pig is composed of proteins with similar receivership capacity.
Session 18 May 2024
The C's were right, Weston Price did say that the best results he got were when the cows were grazing on cereal grasses, like wheatgrass and ryegrass.
Does this mean that proteins from cereal grasses are also more in line with the human receivership capability? Or are they universal receivers, like Quinton plasma?
Here is what the C's said about Quinton plasma:
Q: (Pierre) Why does Quinton plasma have such beneficial properties compared to ordinary saline solution?
A: Basic life energy imprint.
Q: (L) It's like water with memory?
A: Yes
Q: (Pierre) And the seawater is the basic life environment...
A: Yes
Q: (Pierre) It's not because of chemistry or whatever, but it's the right environment for connection with the information field...
A: Conductive as well, in more ways than one!
Q: (Pierre) What are they alluding to here? That it's conductive in an informational way and also in an electrical way?
A: Yes
Session 22 September 2018
What is characteristic about Quinton plasma is that it is taken from a vortex of seawater, where the vortex raises the minerals from the seabed, which are then eaten by the phytoplankton. This area is also fertilized by the desert dust:
How Desert Dust Nourishes Phytoplankton
For the past few decades, scientists have been observing natural ocean fertilization events—episodes when plumes of volcanic ash, glacial flour, wildfire soot, and desert dust blow out onto the sea surface and spur massive blooms of phytoplankton. But beyond these extreme events, there is a steady, long-distance rain of dust particles onto the ocean that promotes phytoplankton growth just about all year and in nearly every basin.
In a new study published May 5 in the journal Science, a team of researchers from Oregon State University, the University of Maryland Baltimore County, and NASA combined satellite observations with an advanced computer model to home in on how mineral dust from land fertilizes the growth of phytoplankton in the ocean. Phytoplankton are microscopic, plant-like organisms that form the center of the marine food web.
Phytoplankton float near the ocean surface primarily subsisting on sunlight and mineral nutrients that well up from the depths or float out to sea in coastal runoff. But mineral-rich desert dust—borne by strong winds and deposited in the ocean—also plays an important role in the health and abundance of phytoplankton.
According to the new study, dust deposition onto the ocean supports about 4.5 percent of yearly global export production—a measure of how much of the carbon phytoplankton take up during photosynthesis sinks into the deep ocean. However, this contribution approaches 20 percent to 40 percent in some ocean regions at middle and higher latitudes.
Phytoplankton play a large role in Earth’s climate and carbon cycle. Like land plants, they contain chlorophyll and derive energy from sunlight through photosynthesis. They produce oxygen and sequester a tremendous amount of carbon dioxide in the process, potentially on a scale comparable to rainforests. And they are at the bottom of an ocean-wide food pecking order that ranges from tiny zooplankton to fish to whales.
Dust particles can travel thousands of miles before falling into the ocean, where they nourish phytoplankton long distances from the dust source, said study coauthor Lorraine Remer, a research professor at the University of Maryland Baltimore County. “We knew that atmospheric transport of desert dust is part of what makes the ocean ‘click,’ but we didn’t know how to find it,” she said.
How Desert Dust Nourishes Phytoplankton
Researchers have found that even modest amounts of desert dust can improve the health of the ocean’s microscopic, plant-like organisms.earthobservatory.nasa.gov
So in both cases we have a connection between trace minerals, photosynthesis and information.