Monday, December 9, 2019

Multiple Starvations Process Beyond Grief Instinct

This interdisciplinary research explores the algorithmic structures operating beyond the Grief Instinct and examines the functional mechanisms underlying the Iceberg Cells. Grief represents a profound emotional response to loss, often triggering sadness or anxiety and leading to chemical imbalances within the brain’s architecture. External stimuli can activate specific signal codes within the Grief Instinct, initiating an Open-loop Cycle.
Under normal conditions, the Grief Instinct employs a default mechanism designed to establish Closed-loop Cycles, aiming to maintain harmonic balance across the Biological Systems. However, when external stimuli are numerous and varied external forces processed through complex permutation algorithms, this default mechanism struggles to maintain closed-loop stability.
The Survival Instinct aims to identify optimal instinctive responses with the shortest execution time to re-establish closed-loop conditions. It dynamically substitutes compatible existing instincts when they become suboptimal or unstable. Each substitution represents and informs a cycle of starvation interval that extends beyond the traditional Grief Instinct.
A Black Box Testing Method is employed to explore these dynamics. This method focuses on uncovering algorithmic patterns beyond the Grief Instinct, investigating the functional mechanisms of the Iceberg Cells, and mapping the operational framework of instinctive components.
A specific signal code is generated within the Grief Instinct when a tragic event occurs, resulting in the loss of a person, experience, or resource vital to evolutionary development. This code, processed through the central nervous system, initiates an Open-loop Cycle. Harmful return codes, transmitted as vibrational frequencies from the subconscious to the brain and body, disrupt the biological system’s chemical balance. As a result, overwhelming feelings of sadness or anxiety are experienced. (Fig 1)
                                                                 



When external entities in social contexts stimulate the Grief Instinct and generate an Open-loop mode within instinct, the functional mechanisms automatically deploy their default source codes to initiate a Closed-loop Mode. (Fig 2)
The default mechanism for the closed loop within the Grief Instinct facilitates the transfer of positive signals from the Subconscious Component into the Brain Framework via specific vibrational frequencies. These positive signals adjust and comfort the Biological Systems, promoting grief relief and supporting a positive emotional state. Subsequently, positive feedback signals from the Biological System return to the Grief Instinct, verifying and sustaining harmonic balance throughout the system. (Fig 2)

                                                                  



 
Biological Systems often struggle to achieve proper harmonic balance and grief relief when the default mechanism for Closed-loop operation within the Grief Instinct attempts to transfer signal codes to the Brain Framework. In the case of possible difficulty, it indicates the presence of an unsupported Default Key for the Closed-loop process within the Grief Instinct. Algorithms operating beyond the default protocol codes within the Grief Instinct are typically insufficient to address the increasing complexity of social contexts. As a result, the Grief Instinct shifts into an Open-loop Condition several times, and the Biological Systems remain in a prolonged starvation mode. When the Grief Instinct is trapped in an Open-loop state, its source codes initiate a call to algorithmic codes embedded within the Iceberg Cells to re-establish a Closed-loop condition. An adapted harmonic balance is formed between the Superego and Ego within the structural framework, creating a Network of Cooperative Instincts to restore the Closed-loop function. This Network of Cooperative Instincts actively attenuates noise and manages complexity within the Grief Instinct, facilitating the reestablishment of a Closed-loop Cycle. The Network operates defensively, strategically exploring logical codes to stabilize the system. As a result, the Open-loop condition transitions back into a Closed-loop mode in a relatively short period. (Fig 3)
 
                                                                          


  
 
When the Grief Instinct remains in an Open-loop mode, and a non-adapted harmonic balance persists within the Iceberg Cells, the source codes of the Grief Instinct request algorithmic codes embedded in aggressive networks to enforce a Closed-loop feedback mode.
The Network of Competitive Instincts can rapidly impose a Closed-loop mode; however, it often carries properties fundamentally incompatible with the Grief Instinct. As a result, the imposition of the Closed-loop mode becomes highly complex, leading to side effects and the emergence of irrational decision-making models along the evolutionary path of life and environmental contexts.
Unlike cooperative networks, which operate defensively, the Network of Competitive Instincts operates offensively without regarding possible consequences in surroundings. The logical data in the Conscious Component may not entangle with the decision-making map. Rational antagonistic codes target and struggle to explore or stabilize a Closed-loop cycle fully at any rate. (Fig 4)

                                                                                                                                              



 
Algorithmic codes originating beyond the Network of Competitive Instincts induce a Starvation Mode within the Grief Instinct in case of failure experiences. In this state, the feedback control system of the Grief Instinct experiences a deadlock, struggling to identify the algorithmic parameters embedded within the feedback signals transferred from the Network of Competitive Instincts. As a result, a halt occurs, shifting the signal code back into input mode for further aggressive modification attempts.
However, receptors within the Grief Instinct often fail to match these modification codes properly. Consequently, the sensor framework continuously propagates signal codes through the feedback control system, initiating a search for a new control configuration in a second cycle. During this process, the Open-loop mode can generate multiple cycles of deprivations within specific intervals, causing the Grief Instinct to persist in an Open-loop condition and Starvation Mode over the long term. Sometimes, algorithmic signals from the Network of Competitive Instincts may temporarily establish an innovative Closed-loop condition. Although this Closed-loop operation can foster specific types of understanding, it is often undermined by illogical codes embedded within the process. These codes contribute to the formation of complex and intricate Decision-Making Patterns within social contexts along the evolutionary path of life.
Notably, most instincts within the Network of Competitive Instincts adopt aggressive operational postures, further complicating the system’s adaptive responses. (Fig 5)
 
                                                                      



 
When the Grief Instinct enters Starvation Mode, it signals the Survival Instinct for assistance, typically triggered by a request from other vigorous instincts to rescue the Grief Instinct, a signal code carrying comprehensive data about its starvation state and related interruption scenarios. In the case of Closed-loop recovery, the signal can be propagated back to the structure of Survival Instinct.
In response, the Survival Instinct transmits a signal to the Subconscious Component, reporting the establishment of Closed-loop conditions and recovery process within the Grief Instinct. (Fig 6)
For example, the X Instinct, which may possess properties fundamentally incompatible with the Grief Instinct, could be nominated for this recovery effort because it offers the shortest execution time among available instincts. Although the X Instinct can rapidly establish a Closed-loop Cycle, its incompatibility can also lead to the creation of a complicated Decision-Making Model. (Fig 6)
Furthermore, logical code encapsulation within the Decision-Making Map with a moderate Superego structure often weakens social behaviors, as strong Ego forces and hostile Competitive Instincts within the Subconscious Component heavily influence decision-making patterns. As a result, the Decision-Making Model tends to generate negative signals, which are then transmitted back to the Grief Instinct to maintain so-called Closed-loop conditions.
This process can foster the emergence of complex social behaviors in broader social contexts, driven by the aggressive operational posture of certain instincts. Ultimately, unresolved grief mode can lead to numerous unique processes or even new tragic events within environmental contexts. (Fig 6)
 
                                                                            



 
Observations:
 
1-Execution Time and Instinct Compatibility:

Instincts with the shortest execution time often struggle to establish Closed-loop conditions because their default mechanisms for handling Open-loop states are incompatible with the operating mechanisms of the Grief Instinct. Instincts selected solely for their rapid response tend to generate failure patterns in decision-making, offering little comfort in the face of loss. This mismatch contributes to increasing complexity within social behaviors and environmental contexts. The Survival Instinct continuously selects subsequent instincts based on the shortest execution time, each selection triggering a new Open-loop cycle and prolonging starvation mode.
 
2-Algorithmic Mechanisms of Open-loop and Closed-loop Modes:

Both Open-loop and Closed-loop operational modes are governed by default algorithms that are preprogrammed within the domain of instincts.
 
3-Impact of In-depth Grieving on Decision-Making:
 
An extended and intense grieving process can impair optimal decision-making capabilities, often leading to emotional states such as anger, depression, and the manifestation of additional tragic events.
 
4-Ego Development in Harsh Environments:
 
Individuals with a strong Ego structure tend to endure harsh environments over prolonged periods. The Ego evolves and strengthens through exposure to unstable conditions and social chaos. Its critical function is to coordinate algorithmic codes beyond the Superego Adjuster and sequence logical data within the Superego structure in the Conscious Component. A harmonic dialogue between the Ego and Superego fosters the development of a coherent relational data model in the Conscious Component. Conversely, when the Superego has weak structural codes, and the Ego is a robust mechanism, multiple incomprehensible decision-making patterns emerge.
 
5-Spiritual Lifestyle Development:

Spiritual lifestyle develops with the interaction of invisible entities that influence the harmonic balance across Biological/ Non-Biological Systems and environmental contexts because of the holistic role of attentional forces in the Subconscious Component. The Survival Instinct may capture signals for possible chaotical situations in surroundings so that defensive instincts accumulate data from external forces. Humans may allocate new life perceptions and touch vulnerability in social contexts.
 
6-Research on Invisible Entities:
 
Invisible entities can be studied using a bottom-up approach research model and the Black Box Testing Method. Researchers aim to construct observational studies to formulate hypothesis statements for detecting untouchable model predictions and manage to analyze algorithmic codes of invisible entities within systems platforms.
 
7-The Nature of Human Existence:
 
Humans are spiritual entities engaging in physical experiences on Earth. Our physical existence on this planet represents one instance among many within the broader framework of Parallel Universes.

 


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