The Proxy Brain Framework serves as a
mediator and interpreter of the intricate patterns connecting algorithmic codes
within the Subconscious Component and the physical body. The Subconscious
Component operates through preprogrammed codes and instinctual decision-making
patterns. In contrast, the Conscious Component contributes logical, depository
codes that support the formation of optimal choices.
The brain acts as the executor within
this framework, managing processing cycles and transmitting algorithmic codes
to the appropriate regions of the physical body. It governs all internal
processing loops, dynamically shifting between open-loop and closed-loop
instinctual modes in the Subconscious Component.
While the brain regulates current
processing cycles, it cannot anticipate future decision models or respond
proactively to evolving environmental demands. Its function is primarily
regulatory, synchronizing the exchange of information between the Subconscious
Component and the physical body.
Nevertheless, the brain framework
maintains holistic awareness of serial decision-making sequences. It integrates
various inference procedure blocks, aligning them with distinct time intervals.
Though the Conscious and Subconscious Components share identical data units and
network structures, the brain's complex and diverse networks can obstruct
seamless integration with the more homogeneous networks of the
Conscious/Subconscious domains.
Bridging this structural disparity
requires vibrational frequency modulation, harmonizing data flow across these
domains. Executed codes within the Decision-Making Map propagate through these
vibrational frequencies, facilitating communication and coordination.
Example Scenario: Iterative
Instinctual Cycle in a Drinking Water Task
The five-step synthetic process
illustrates how instincts guide a simple, goal-directed action. Each step
activates a vibrational resonance that forms a handshake between the Conscious
Component and the Brain Framework, allowing the delivery and encoding of data
into memory. This synchronization enables the brain to comprehend and
anticipate the iterative pattern of actions as follows:
1- Walk ten yards toward the water bottle behind a closed door.
2- Pick up the key from the table.
3- Use the key to unlock and open the door.
4- Retrieve the water bottle from the shelf.
5- Drink the water.
Each stage in this process reflects a
dynamic interaction between instinctual impulses and conscious awareness,
mediated by the Proxy Brain Framework.
During the initial phase,
the brain's memory system allocates algorithmic codes from the Subconscious Component and encodes them for transmission to the physical body. In
the subsequent phase, the outcomes of actions, particularly within social contexts,
are relayed back to the Subconscious Component through the Brain Framework,
completing a feedback loop.
The Conscious Component
organizes this process by utilizing distinct frequency bands
to categorize and segregate memory segments within the brain, functioning as a primary cache.
Daily interactions generate analogical
algorithmic codes from
Consciousness, which can be reproduced through the physical body as repeated or
habitual actions.
Persistent data,
especially that associated with reinforced experiences, may be labeled, stored
within cellular memory, and later retrieved to enable faster or more
efficient decision-making. However, despite this capacity for storage and
replication, the Brain Framework remains limited: it cannot independently
predict future decision models based solely on previously encoded patterns from
the Conscious and Subconscious Components. (Figure 2)
Refined Observations on the Proxy
Brain Framework and Algorithmic Decision Models
Observation 1:
Within the Conscious Component, secondary memory retains long-term algorithmic
data securely, serving as a repository for enduring information. In contrast,
the Brain Framework's primary memory temporarily stores daily data for
short-term access. Upon the biological system's extinction, this transient data
seamlessly migrates to the secondary memory system within the Conscious
Component, ensuring continuity.
Observation 2:
Human strategies for navigating social and existential challenges can be
explored beyond the limitations of traditional academic paradigms. Establishing
a transdisciplinary research platform that bridges academic rigor with
universal insights and integrative principles can significantly advance our
understanding of human behavior and contribute meaningfully to global progress.
Observation 3:
Optimal algorithmic codes within the Decision-Making Map are contingent upon
achieving harmonic equilibrium between the Ego and Superego frameworks, the
ideal activation of adaptive instincts, and the systematic deactivation of the
Old open-loop instinct cycles (starvation instincts).
Observation 4:
Accurate decision modeling requires optimal alignment among the Subconscious,
Conscious Components, and the Brain Framework. This alignment depends on
a universal structure of compatible attribute type settings, where default
attribute sets represent counterpart values within each domain. Resilient,
encapsulated algorithms can be activated to address and transcend complex
barriers to alignment.
Observation 5:
The Brain Framework is susceptible to disturbances and modifications caused by
deterministic chaos factors, both internal (e.g., physical body dysfunctions)
and external (e.g., socio-environmental variables beyond the
subconscious/conscious reach). When multiple aggressive instincts are
concurrently activated, they may deploy hostile or disruptive code patterns
within the Decision-Making Map, functioning analogously to malware within
biological systems.
Observation 6:
External stimuli can invoke decision-making processes beyond primitive
instinctual reactions by integrating higher-order algorithmic patterns. A
solitary real-world action may not always elicit a direct instinctual response.
Instead, stored data within the brain's memory, linked to the Subconscious
Component, can facilitate execution without direct subconscious engagement.
Observation 7:
External stimuli may initiate open-loop phases in instinctual cycles. Once
triggered, the instinct's processing cycle must proceed through a sequence of
actions followed by uninterrupted completion, ultimately achieving a
closed-loop condition. These cycles originate from instincts that extend beyond
the Subconscious Component and resonate through the Brain Framework via
vibrational frequencies. The brain's memory retains awareness of these multiple
concurrent instinctual processing cycles.
Observation 8:
By integrating with a robust central system, both Biological and Non-Biological
Subsystems can bolster community resilience by reducing systemic vulnerability.
These subsystems collaboratively address trauma and instability while operating
under broader global variables and invisible regulatory functions
defined and dictated by the central system. As they navigate multiple open-loop
cycles of instincts, the subsystem of subconsciousness may encounter
disorientation when adapting their decision-making models to a larger, dynamic
environment.
Observation 9:
Goodwill, expressed through kindness and fairness toward nature and humanity,
correlates with an optimal Network of Cooperative Instincts within the
Subconscious Component. In contrast, humans embedded in aggressive environments
often manifest a dominant Network of Competitive Instincts, which hinders the
integration of friendly behaviors into the Decision-Making Map. Acts of
goodwill represent foundational elements of harmonious social justice.
Resilient logical structures in the Conscious Component and cooperative
instinct networks can revitalize the Old open-loop cycle of instincts and
redirect competitive tendencies toward more collaborative outcomes.
Observation 10:
System designers can refine the inherent characteristics of both Biological and
Non-Biological Systems to achieve adaptive synchronization with evolving
environmental conditions. While conceptual design depends on the logical
integrity of operational frameworks, any unauthorized alteration of default
algorithmic codes may result in unforeseen irregularities and disruptions in
system performance.
Observation 11:
The Subconscious Component contains diverse instinctual arrays, each designed
to sustain specific algorithmic behaviors supported by lifelong logical data
accumulated in the Conscious Component. External stimuli can activate open-loop
cycles within the Survival Instincts. The processing cycle, in turn, may call
and activate numerous instincts to execute a single specific task within the
Subconscious Component. These instincts collaborate to construct a
multi-layered decision-making algorithm embedded within a complex map.
Different groups of instincts align to
create unique decision-making models, reflecting the intricate interplay
between various subconscious processes. In chaotic social environments,
overlapping aggressive instincts can collide, resulting in paradoxical
behaviors and erratic conduct, shaped by subconscious and conscious conflicts.
