Sentient Plant Brain Grows

PLANT NEUROBIOLOGY

Sentient Plant Brain Grows

by Humanoido

I started growing plant brains. Follow along in a series of blogs for all the DIY info.

When given the opportunity to access a hydroponics bay, the sentient plant immediately started growing new brain parts and sent those parts into the hydro wet nourishment abyss.

This resulted in over a handful of new existentialistic brain pathway stems forming a greater system network.

Photo: Humanoido photographs over a handful of new plant brain in brain view distributary extensions. This resulted when a hydroponics bay was offered to the plant. The plant began to send out brain shoots and has continued ever since the bay was available. This has resulted in more leaves, larger leaves, and a faster rate of growth. It's anticipated the plant brain will continue to grow, eventually amassing a much larger entangled web of thought pathways.

PLANTS HAVE BRAINS

Plants have a completely different anatomy from humans, therefore it's not surprising the plant brain can be found in their roots. The root system controls numerous and vital processes in the plant, even functioning as its “heart” by pumping water and nutrients across the whole plant. According to plant neurobiology, it is claimed that plants exhibit intelligent behavior, and that they possess internal control structures in many ways functionally similar to neuron-based control structures.

POTENTIAL PLANT BRAIN EXPERIMENTS

In this proposal for a future project, by Humanoido, a tap is generated into the plant brain using electrodynamic sensors and computerized real time microprocessor software to read the word states of the network and control structures. A system of brain thought language might be developed. Once the language is developed, a translator from plant language to English may be synthesized. This language would offer cross sectional spotlights of parametric communicative data commensurate with the plants spatial and time metabolics.

PLANT NEUROBIOLOGY

Plants are highly evolved multicellular creatures that must coordinate their behavior in responses to a wide variety of internal and external signals. One would expect that these creatures have evolved their own conductive devices for this purpose. In particular when the huge size of some plants is taken into account, the presence of long distance signaling seems to be essential and the functional need for a nervous system—or at least a neuroid system as described by Mackie—seems obvious.

PLANT TARGETS

The difference between plant neurobiology and other basic disciplines resides in the target of these interdisciplinary efforts. Plant neurobiology aims to achieve a scientific understanding of the integration of plant sensation and response. The target is the scientific understanding of how metabolism and growth can be regulated by the endogenous integration and processing of information. 

PLANT SIGNALING & THE ELECTROPHYSIOLOGICAL

Plant neurobiology stresses the integrated signaling and electrophysiological properties of plant networks of cells. As Balusˇka et al. (2006) point out: Each root apex is proposed to harbor brain-like units of the nervous system of plants. The number of root apices in the plant body is high, and all ‘‘brain units’’ are interconnected via vascular strands (plant neurons) with their polarly-transported auxin (plant neurotransmitter), to form a serial (parallel) neuronal system of

plants. (p. 28).

Plants: Adaptive behavior, root-brains, and minimal cognition

https://www.um.es/plantpapers/documents/2150319124054.pdf

Big Brain Propeller Chip Hardware Enumeration

BIG BRAIN PROPELLER CHIP HARDWARE ENUMERATION
The currents system of the Big Brain employs a fast software approach to enumerating by chronological numerical algorithm from Propeller chip one to Propeller chip "n" which can be up to 150 chips or more installed inside the Big Brain machine's partitions.

This system describes a hardware approach to 150 or more chips using the input pins, with capability to handle thousands of chips.

Each Propeller chip is allotted up to 28 pins for use in this experiment. Chips 1 through 28 simply each dedicate one pin to a unique enumeration input based on the series 1, 2, 3, ... up to 28. Each pin is routed to ground, through a protective resistor.

Next, Propeller chips 29, 30, 31, ... up to 56, each have two pins allotted for a unique enumeration. For example, prop 29 has pins 0+1 grounded, prop 30 has 1+2, prop 30 has 2+3... and the series continues.

Propeller chips 57, 58, 59... up to 78, each have unique combinations of pins allotted. Additional unique 2-pin combinations exist. Props 79-150 use more unique combinations. The simple approach requires one extra resistor per each chip pin used for enumeration.

In actual cases, some pins are reserved. The following example shows the system. The code will simply read the binary pin word.

Propeller  Pin #
01             1
02             2 
03             3 
04             4 
05             5 
06             6
07             7
08             8
09             9
10             10
11             11
12             12
13             13
14             14
15             15
16             16
17             17
18             18
19             19
20             20
21             21
22             22
23             23
24             24
25             25
26             26
27             27
28             28
29             1,1
30             1,2
31             1,3
32             1,4
33             1,5
34             1,6
35             1,7
36             1,8
37             1,9
38             1,10
39             1,11
40             1,12
41             1,13
42             1,14
43             1,15
44             1,16
45             1,17
46             1,18
47             1,19
48             1,20
49             1,21
50             1,22
------------------
51             1,23
52             1,24
53             1,25 
54             1,26
55             1,27
56             1,28
57             2,2
58             2,3
59             2,4
60             2,5
61             2,6
62             2,7
63             2,8
64             2,9
65             2,10
66             2,11
67             2,12
68             2,13
69             2,14
70             2,15
71             2,16
72             2,17
73             2,18
74             2,19
75             2,20
76             2,21
77             2,22
78             2,23
79             2,24
80             2,25
81             2,26
82             2,27
83             2,28
84             3,1
85             3,2
86             3,4
...

Big Brain Definitions

BIG BRAIN DEFINITIONS
There's a growing list of Big Brain word definitions from new technology invented and old technology repurposed. The list will post from time to time and eventually all definitions collected together will create a new dictionary.


Definitions that apply to the NULT Telescope

NULT - New Ultra Large Telescope

Adjunct - device to increase NULT resolution

Node - position in space time

Portal - means by which something new takes place

Jump Points - singular new points of space reference

Space Domain - particular region in space and time

Universe Penetrator - device enhances NULT up to ten times

Big Brain - Propeller chip based machine that controls NULT

DSC - Big Brain's Deep Space Center

GRS - Jupiter's Great Red Spot

Rotating Brain - engages single or multiple hemispheres

NASA - National Aeronautics and Space Administration 

Acceptance Mode - the ability of the Big Brain to configure and reconfigure, while accepting a new design, change in design, update, add-on, host, or upgrade

Consolidation Program - a project to bring together all Big Brain components, parts, modules, assemblies, and offspring in one place, and to reassemble with the goal of a more powerful and readily accessed unit.