Description
Superhuman Heart and Cardiovascular Effect
The info on this document has been well researched
and the purpose of this field is to maximize heart,
lungs and cardiovascular human potential. It will try to
evolve the heart and the cardiovascular system to
superhuman levels way beyond the average human.
This field is intuitive and will ensure these abilities are
safely integrated into your being. It will give the user
the best genes and environment possible to achieve
these cardiovascular effects. After continuous daily
use, the user’s heart and cardiovascular system will
be able to take incredible amounts of stress whether it
is from massive amounts of daily morphic field usage,
massive amounts of stress from physical activity
(exercise or work), the acquisition of huge amounts of
muscle mass from weight training or morphic field
usage like the Gama series, or from the acquisition of
huge gains from the male enhancement efforts of
Sword of Yang M.E. field users. It will make the heart
strong enough for any present of future situation. A
heart as strong as one of a dragon so to speak.
I. Genes (there are some included in the
supersoldier serum field, plus others that are not
there as well. New genes are numbers 11-16.
1: Sherpa – Epas1: A gene that helps your body use oxygen more efficiently, it was first
discovered in the Tibetan people because of their lifestyle of living at very high altitudes.
2: EPOR gene mutation: An elite cross country skier named Eero Mantyranta had an
extremely rare variant in this gene that mutated it and made his EPOR gene permanently turn
on which gave him a naturally higher amount of red blood cells boosting oxygen delivery up to
25-50%.
3: MTHFR gene: In studies it was found that the MTHFR rs1801131 C allele was associated
with power athlete status. It increases athleticism through factors leading to myogenic
differentiation stimulation leading to increased muscle mass and induction of genes involved
in metabolism.
4: Enhance and Speedup Mitochondria Biogenesis: It
refers to the process of creating new mitochondria within
cells.
5: Pepck-Cmus Enzyme: “Professor Hanson noted that PEPCK-Cmus mice, dubbed “the
mighty mice”. Without eating or drinking, they can run for four or five hours and are 10 times
more active than ordinary mice in their home cage. “Pepck-cmus enzyme concentrated in
muscle tissue. In short, this increases mitochondria in muscle tissue, allowing far more power
and endurance than humanly possible.
6: PPAR delta: It is a transcription factor that regulates energy metabolism in muscles and
plays a key role in the adaptation of muscles to endurance exercise. Increase the expression
of PPAR delta so it improves energy metabolism in muscles, leading to enhanced endurance
performance.
7: Myoglobin: It is a protein that helps to store and transport oxygen in muscles. Increase the
levels of myoglobin in muscles to improve oxygen uptake and utilization, leading to improved
endurance performance.This can be done by targeting the pathways involved in myoglobin
synthesis.
8: Nitric Oxide: It is a molecule that helps to regulate blood flow and oxygen delivery to
muscles. Gently and safely increase its level to improve the body’s ability to transport oxygen
to muscles during exercise
9: AMPK Activation: AMP-activated protein kinase (AMPK) is an enzyme that regulates
cellular energy homeostasis. By activating AMPK,this will increase the body’s ability to
generate energy from glucose and fat, leading to improved endurance.
10: Hypoxia-inducible factor-1α: Hypoxia-inducible factor-1α (encoded by the HIF1A gene)
controls a number of genes that are implicated in various cellular functions including
glycolysis and cell proliferation and differentiation. The rs11549465 C > T polymorphism in the
HIF1A gene, which produces the amino acid substitution Pro582Ser, increases protein
stability and transcriptional activity and, therefore, improves glucose metabolism.
11: Amblox gene: This gene is encoded by axolotl salamander, which allows them to
regenerate any part of their body. Can help the heart and the cardiovascular system to
recover fast from any possible injury.
12 Lack of NCoR1 gene: This gene is a conserved physiological modulator of muscle mass
and oxidative function. The knockout of this gene in mice led to enhanced exercise endurance
and strength, this is because the knockout of this gene increases muscle mass, mitochondria
in muscle, increased oxygen uptake.
13 PPAR-a intron 7G>C: This gene is different than the PPAR delta gene (#6 on this
document) present in the supersoldier serum field. This gene has been found to be
associated with increased endurance and aerobic performance. It increases maximal
oxygen consumption.
14: PPARGC1A Gly482Ser: This gene has also been found to be correlated to endurance in
elite level athletes.
15: IGF-1 genotype: The rare TT genotype of this gene has been associated with endurance
and power sport performance.
16: TPK1 rs10275875 C allele: This gene has been found to be a genetic marker of power
athlete status. It helps the body recover after exercise through B vitamins being involved in
energy production and tissue repair.
II. Lungs upgrade. Maximal oxygen uptake ability, or VO2 max to maximum
levels.
Red Blood Cells:
This field will increase one’s red blood cell count, which allows the body to transport more
oxygen to muscles and therefore increase stamina. A higher volume of red blood cells equals
higher athletic performance.
VO2 Max:
VO2 max has three primary components: Lung capacity and heart volume: The more oxygen
your lungs can intake and the more oxygenated blood your heart can pump, the higher your
VO2 score. Capillary delivery: The more oxygenated blood your circulatory system can
transport to your muscles, the higher your VO2 score. This field will safely and effectively
increase all three of these components leading to much better endurance. The MAIN IDEA
here is to evolve your cardiovascular system SAFELY overtime (compounding effect with
daily listening) to reach the world record of 97.5 VO2 max and beyond.
https://www.sciencedirect.com/topics/medicine-and-dentistry/maximal-oxygen-uptake
https://www.thedailybeast.com/the-secret-behind-superhuman-feats-of-
endurance
“Cardio respiratory endurance measures how efficiently your heart, lungs, and muscles work
together to process oxygen during exercise, while muscular endurance measures the ability
of a muscle group to sustain repeated contractions against resistance. As scientists, we
measure cardiorespiratory endurance through something called maximal oxygen uptake
ability, or VO2 max,” which is measured in milliliters of oxygen consumed per minute.
Harrison says. Accomplished long-distance runners have a high VO2 max, meaning they’re
able to consume a high amount of oxygen and deliver it to their muscles to fuel performance
—and generally, the higher the VO2 max, the greater an athlete’s level of endurance.
A sedentary person who doesn’t exercise much might have a VO2 max of 20, Harrison
explains, while an average athletic person might have a VO2 max of 45. A VO2 max in the
80s is considered in the range of a world-class athlete (Lance Armstrong’s VO2 max is
rumored to be in the low- to mid-eighties) but again and again, athletes keep proving that the
limits of human potential can be nearly infinite: In 2012, an 18-year-old Norwegian cyclist
named Oskar Svendsen underwent metabolic tests to determine his VO2 max and clocked an
unprecedented score of 97.5.
To measure muscular endurance, experts look at something called a lactate threshold,
Harrison explains, which is “the point at which lactate starts to accumulate in the blood at an
ever-increasing rate, faster than the body is able to clear it without decreasing the pace of
running.” Once a runner or weightlifter starts to approach their lactate threshold, they
experience fatigue, shortness of breath, and cramping—signs the body is shutting down its
performance. Lactate threshold is expressed as a certain percentage of an athlete’s
maximum oxygen intake or heart rate. In other words, a less-established runner might reach
his lactate threshold at 50 percent of their maximum VO2 level, while world-class athletes
start to tap out at 80 or 90 percent of their max VO2 rate— meaning that they can perform at
80 to 90 percent of the absolute limit of what their body is capable.
With these parameters in mind, how do athletes increase things like VO2 max and lactate
threshold, enabling them to break world records and push themselves for farther, faster, and
longer?
“The fast way is to do interval training,” Harrison says, which is short periods of intense
activity followed by even shorter periods of recovery time—so, for example, running
moderately hard for two minutes, followed by a one-minute walk. This, Harrison says, is
“really well evidenced to increase one’s VO2 max quickly over the span of a few weeks,”
sometimes by a factor of 10 or 20 mls/minute—a “huge” improvement, Harrison says. The
downside? “You’re flirting with overtraining and cumulative fatigue,” which results in muscle
aches and reduced performance.
So what’s the alternative? Like the tortoise and the hare, exercising slow and steady for
months at a time is usually an athlete’s best bet.
“The best way to improve performance is to do 60-90 percent of your training at longer
distances and slower velocities than your velocity at VO2 max,” Harrison says. “Doing around
10 to 30 percent of your training as intervals is a good way to avoid cumulative fatigue and it
increases your VO2 more reliably than trying to hammer out intervals every day.”
“The better the heart, the more oxygen uptake,’’ Mattsson explained. “Find the
genes that are important for high oxygen uptate, you find the genes that are
important for a good heart.’’
Can superhuman athletes provide genetic clues on heart health?
III. SMART FIELD FOR PRP THERAPY AND PLURIPOTENT STEM CELLS
This sub field will constantly scan our heart and cardiovascular system for any damage or
health problem that it may have, and in case there is a problem, it will then send pluripotent
stem cells (made from fat) and PRP therapy which is an injectable procedure involving
the injection of a patient’s platelet-enriched plasma into the heart and cardiovascular system
aimed at accelerating regeneration and stimulating the growth of the heart and cardiovascular
system cells.
https://prpkits.com/prp-therapy-in-cardiac-surgery/
Use 2-4 times a day
