CRYPTOCHROME CHIMPANZEE POETRY

 

5G got into me, morphogenetic

chimpanzee poetry. Neuroscience

sees the right brain as monkey mind

 The right brain is far from monkey man.

 

Let me start by saying, I am not a scientist

just a mere poet, gripped. I took a massive

stroke in 2005, my left brain was erased

so I live on the write side so how come.

I understand the divided brain. I have been

writing for years on my sense that Raymond -

Carver and Patrick Kavanagh are here in

the realm of possibility. Me becoming poet

was accidently on purpose, a signal of humanity.

 

 

 

 

Both these poets have been trans-

 

mitting waves of humanity. I believe 

 

that D.N.A. is sent to strands of D.N.A. 

 

via waves of cryptochrome like 

 

microwave signals.                                                                                                             

 

My life and my poems have been about seeking

Feeling not meaning, we have been searching

For metre rhyme and meaning but the Portuguese

Poet Fernando Pessoa said ‘it is not necessary just

 

to live but to feel’.

 

 

 

 Raymond carver 

Fernando Pessoa

 

Footnote : 

I TOOK A MASSIVE STROKE THAT ALMOST KILLED ME THEY SAY MY LEFT BRAIN WAS ERASED SO I LIVE IN THE WRITE HEMISPHERE AND ITS FULL OF POETRY AND ART THERE IS AN ENTITY GOD IN HERE. I DON’T BLASPHEME INTENTIONALLY, I AM LEFT PARALYZED DOWN RIGHT SIDE UNABLE TO WALK MUMBLING TALK AS MY VOCAL CORDS ARE DAMAGED, LOST MY LONG-TERM MEMORY.

 

Cryptochromes (from the Greek κρυπτός χρώμα, "hidden colour") are a class of flavoproteins found in plants and animals that are sensitive to blue light. They are involved in the circadian rhythms and the sensing of magnetic fields in a number of species. The name cryptochrome was proposed as a portmanteau combining the chromatic nature of the photoreceptor, and the cryptogamic organisms on which many blue-light studies were carried out.^[1][2]

 

The two genes Cry1 and Cry2 code the two cryptochrome proteins CRY1 and CRY2.^[3] In insects and plants, CRY1 regulates the circadian clock in a light-dependent fashion, whereas in mammals, CRY1 and CRY2 act as light-independent inhibitors of CLOCK-BMAL1 components of the circadian clock.^[4] In plants, blue-light photoreception can be used to cue developmental signals.^[5] Besides chlorophylls, cryptochromes are the only proteins known to form photoinduced radical-pairs in vivo.^[6]

 

Cryptochromes have been the focus of several current efforts in optogenetics. Employing transfection, initial studies on yeast have capitalized on the potential of Cry2 heterodimerization to control cellular processes, including gene expression, by light.