The theory presented below is rooted in the principles of systems thinking.

Everything in the whole universe can be referred to as a system, either a natural, a human-made or a hybrid one. A system is a group of interacting parts that form a complex whole. This includes everything from small, simple systems, such as a rock or a cell, to large, complex systems, such as the solar system or the human body.

All observable systems are the result of a long evolutionary process.

The concept that all systems, whether natural or artificial, tend to exhibit a pattern of behaviour in which they naturally improve and evolve or otherwise face the possibility of decline and failure, has been explored in various fields of study. For instance, in biology and ecology, evolution and adaptation are widely accepted as fundamental characteristics of living organisms.

In the realm of social sciences, including economics and political science, theories such as the life cycle of organisations and the rise and fall of empires illustrate the cyclical nature of systems. Additionally, the concept of systems thinking, which focuses on the interdependence and complexity of systems, suggests that changes in one part of the system can significantly affect the system as a whole.

While the specific factors and mechanisms that drive these patterns may vary across different systems, the general tendency towards evolution or decline highlights systems’ dynamic and adaptive nature in response to internal and external factors.

Systems operating within changing environments need to adapt and evolve to survive. A system unable to respond and adjust may struggle to cope.

In the case of the universe, the laws of physics and the initial conditions of it are thought to have shaped its development and evolution. Within the universe, there are a wide variety of systems, including celestial bodies, galaxies, and solar systems also evolved under similar conditions and forces they have encountered.

On a smaller scale, the evolution of life on Earth can be observed as a result of the interaction between living organisms and their environment. Life forms that adapted and improved in response to changing conditions were more likely to survive and reproduce, while those unable to adapt faced extinction. Evolution by natural selection is thought to be a critical mechanism that has driven the diversity and complexity of life on Earth.

In addition to physical systems, artificial ones such as social, economic, and political systems have evolved, shaped by the actions and behaviours of individuals or elements within them and by external factors such as resource availability and technological advancements. As with other systems, the ability to adapt and improve may be crucial to their success.

Overall, the need to evolve and adapt to changing conditions is a fundamental aspect of many systems and plays a crucial role in determining their survival.

Almost all matter in the universe is made up of different combinations of fundamental particles such as protons, neutrons, and electrons. These particles make up atoms, which in

turn make up the basic building blocks of matter, although there are other forms of it, such as dark matter, that do not consist of atoms.

All chemical elements, in their ground state, are electrostatically balanced. The positive protons are offset by the negatively charged electrons in their shell. The charge of the atom is zero, signalling a tranquil state of neutrality. For an evolution or a chemical reaction to happen, an off-balance is required. This disturbance could come in the form of energy like heat, light, electricity, or a catalyst, which sparks a chain reaction, creating new compounds and releasing energy.

It all starts with the smallest Hydrogen particle. During a star’s life cycle, the intense pressure and heat allow for nuclear fusion; this disturbance in the balance of the Hydrogen atoms causes them to overcome their mutual repulsion to combine and form Helium. The balance is disturbed, paving the way for evolution.

As Helium accumulates in the star’s core, creating an environment of even greater temperatures and pressures, it triggers the next phase of fusion, where helium atoms fuse to form heavier elements like Carbon and Oxygen. Each fusion reaction releases immense energy, which counteracts the gravitational forces trying to collapse the star inward. This fragile balance between gravitational pull and nuclear pressure sustains the star’s life cycle. Eventually, when the core becomes predominantly iron, fusion ceases to yield energy, leading to a catastrophic collapse. This implosion results in a supernova explosion, dispersing the newly formed elements into the cosmos. These elements contribute to the formation of new stars, planets, and life itself, illustrating how the processes within stars are fundamental to the universe’s evolution.

Fundamentally, the formation of basic elements in the universe is powered by nuclear fusion within stars, while more complex structures like rocks and living organisms involve a combination of physical, biological, and chemical processes.

All systems, living or non-living, evolve through this cycle of balance and disturbance, like an eternal dance. They are born out of constraints, growing and adapting through the constant swing between equilibrium and disequilibrium.

The Theory

Evolution has long been studied in various science fields, from biology to economics. One of the fundamental principles of evolution is the process of change over time, where systems undergo a transformative journey from their original state to a new one, usually resulting in increased complexity and organisation.

The theory developed in this book is formally articulated as follows:

For a system to undergo an evolutionary process, three fundamental conditions are required: a balanced state, a disruptive challenge that places the system off-balance, and a driving force or desire compelling the system to strive for a new balance.

 Together, these conditions incite change and adaptation within the system. Evolution occurs as the system cycles between unbalanced and balanced states over time, struggling to improve its condition.

The first element, the balance state, characterises a system’s equilibrium, maintained by factors such as feedback loops, homeostasis, and regulatory mechanisms. This harmonious state ensures the system’s efficient functioning.

The second element, a disruptive challenge, perturbs this equilibrium, rendering the system unstable and necessitating adaptation. This disruption can be due to numerous factors, internal or external, such as chance events, mutations, or social, economic, technological, political, and environmental changes. This catalyst instigates the system’s evolution.

The third element is a driving force motivating the system to struggle towards a new state of balance. This force, internal or external, encourages the system to undertake the arduous journey of change.

These conditions, fundamental to evolution, are evident in numerous systems across science. Living organisms inherently possess them, which are essential for survival and growth. A balanced state in living organisms is reflected in the harmony of physiological, biological, and behavioural functions. Challenges can arise from physical stress, illness, environmental changes, or other external factors. The drive for survival, growth, and reproduction motivates the organism to undertake transformation.

In contrast, artificial systems, such as monetary, economic, and political systems, or AI, acquire these conditions through human intervention. The system’s creators establish a balanced state, while challenges can arise from technological advancements, policy changes, or opportunistic manipulation. Advances, societal needs, and shifts in economic and political paradigms influence the driving force for artificial systems.

While human intervention drives the presence of these conditions in artificial systems, they parallel those in living organisms. By understanding these conditions and their roles in artificial systems, we can steer their evolution towards improved outcomes.

The Reciprocal Theory

If a system is in a perfect balance and no disruptive challenges set it off-balance, it will not undergo an evolutionary process. In the absence of any internal or external input, the system may remain static, and there would be no driving force or desire to struggle to achieve a new balance state.

This suggests that imbalances or disruptions in a system drive evolutionary change and that a certain degree of instability or disequilibrium is required for a system to evolve and adapt over time. This is consistent with the idea that biological systems, for example, have developed mechanisms to restore balance when thrown off by internal or external factors. This constant cycle of balance and unbalance is required for evolution to occur.

The reciprocal theory helps explain why living systems have developed intrinsic mechanisms that disrupt a particular balance state even without external factors. Consider, for instance, the cognitive-emotional behaviour system. Individuals often pursue various achievements to enhance their well-being; however, once these goals are attained, the resulting emotional equilibrium tends to be transient, leading to a subsequent desire for new objectives. An intrinsic mechanism within this system propels individuals to strive for improvement and fosters ongoing adaptability to potential environmental changes, even without significant current shifts. This observation indicates that living systems have evolved to be dynamic and adaptive, perpetually seeking new challenges and opportunities for growth and development, irrespective of immediate threats or disruptions.

This is consistent with the idea that living systems are inherently unstable and that a certain degree of disequilibrium is needed for adaptation and evolution. By constantly seeking new challenges and opportunities, living systems can maintain a certain level of instability and adaptability, allowing them to respond quickly and effectively to environmental changes.

Both theory and its reciprocal suggest that imbalances and disruptions are essential for biological and artificial systems to evolve and adapt over time. Dynamic, adaptive systems are best able to respond to changing environments and maintain high resilience and adaptability.

Implications

1. Evolution is a constant process: The theory implies that for a system to evolve, it needs to be in a continuous state of balance, disruption, and adaptation. Evolution is not a one-time event but an ongoing process requiring constant effort.

Indeed, all systems have emerged and evolved from this triad of conditions. The hypothesis posits the matter in a state of equilibrium early in time. Subsequently, this state of balance was disrupted for reasons yet to be understood, initiating a process of adaptation and evolution. This dynamic cycle of equilibrium and disturbance has persisted, giving rise to the diverse and complex systems we observe today. Thus, the triad of balance, disruption, and adaptation serves not only as a mechanism through which living systems evolve but also as a fundamental process through which they come into existence.

Therefore, the dynamic nature of balance shifting and the need to experience the tense process of adaptation are inherited in the very elementary fabric of any system and are not just secondary or incidental features.

2. Change is needed for growth: The theory suggests that change, in the form of disruptive challenges, is essential for a system to evolve and grow. This means that systems that resist change or cannot adapt to new challenges are less likely to survive in the long run.
3. Disruptive factors play a crucial role: balance disruptive factors have always played a vital role in the evolutionary process of natural and artificial systems, dating back to the beginning of the universe with the first balance disruption. These factors are deemed to have been and will always be present, taking various forms such as chance events or mutations, technological advancements, social trends, environmental changes, and more.

Any factor that disrupts the system’s balance and temporarily puts it off balance can be considered a challenge to its equilibrium. Therefore, systems need to be aware of these potential balance disruptive factors, both historical and current, and be prepared to adapt and evolve in response to them. By recognising and addressing these factors, systems can enhance their adaptive capacity and resilience, improving outcomes and increasing chances of long-term survival.

4. Any living system we can experience today is a survival of an ever-dynamic cycling shift of the balance state under the vast, broad spectrum of disruptive factors. Therefore, they must have inherited the ability to perceive the certainty of the balance disrupting occurrences and are continuously evolving to maintain resilience and adaptability. This implies that our survival systems have developed intrinsic mechanisms that enable them to identify and respond to changes and disruptions in their environment, allowing them to maintain stability and adaptability.
5. Struggle is essential for progress: a driving force or desire is required for a system to achieve a new balanced state. This means that struggle, while challenging, is an essential part of the evolutionary process and can lead to progress and growth.
6. The transient nature of balance state: the theory posits that systems cannot achieve and maintain a continuous state of balance. Instead, balance and unbalance are equally important, and neither is the ultimate goal of the system’s well-being. The evolutionary process aims to develop efficient adaptive behaviours and the ability to cope with future disruptive factors.

The pursuit of an ideal balance state is not beneficial in the long run, as it can lead to systems that are less capable of adapting to future disruptions. While balance can serve as a motivating factor for improvement, it is essential to recognise the transient nature of balance and embrace the inherent off-balance conditions that drive evolutionary progress.

7. To maintain acute adaptability, Living organisms have developed internal mechanisms to self-regulate the balance state, even in the absence of disruptive events.

Although the balance state is the desired state that systems feel the natural need to achieve, the scope of evolution was not so that an improved organism could achieve it but to improve its ability to harness the energy and its condition within the environment. Thus, a holistic approach to balance does not involve a rigid, linear progression but rather a continuous challenge through self-induced controlled disruption, such as implementing changes and diversity.

8. Rigid approaches to achieving and maintaining balance can be detrimental. For example, maintaining a prolonged rigid lifestyle or diet can harm living organisms. In politics, an inflexible approach to governance can be damaging. A rigid and unchanging approach to operations or technology in the business world can lead to stagnation and eventually decline. A holistic approach to balance means constantly challenging the system with controlled disruption through changes and diversity.
9. Self-induced challenge: The challenge to a system’s balance does not need to stem from involuntary external factors. A system can voluntarily create tension and engage in a process of self-improvement even in the absence of external disturbances. By proactively striving to enhance its condition, the system can mitigate the natural occurrence of imbalance.

This voluntary effort stresses the system’s equilibrium, compelling it to adjust its state and align more closely with its evolutionary trajectory. While balance degradation is inevitable, a system can proactively induce a temporary, manageable imbalance through self-reformation.

By fostering self-derived tension and pursuing improvement, a system enhances its adaptive capacity and resilience, enabling it to maintain stability and better respond to future changes. Thus, the ability to voluntarily induce challenges to its balance is a crucial determinant of a system’s evolutionary potential and adaptability.

This is the most important implication of this theory, as it provides an active means of pragmatical understanding, programming, modelling, and managing the evolution of living and artificial systems in a broad spectrum of disciplines seen through this theory.

Whilst the above implications support the idea that pursuing flexibility and adaptability is essential to any system’s well-being, it is also imperative to note that there is also a limit to a structure’s flexibility. In technical terminology, we call this the slenderness limit. Slenderness limitations on structures are intended to restrict the system’s flexibility and ensure its integrity by avoiding excessive movements that could lead to collapse.

The concept of slenderness limit represents the delicate balance between stability and flexibility.

To this theory, this limit symbolises the constraints of a system’s capacity to adapt or change. Every system, living or artificial, has a certain range within which it can adjust or adapt to changes and disruptions. If the system is pushed beyond its adaptability limit, it could lead to a system collapse, analogous to a structural failure in engineering.

This perspective emphasises the necessity for carefully controlled disruptions, referred to as ‘self-induced challenges’. While disruptions are critical for driving evolution and adaptation, they must not exceed a system’s capacity to respond and adapt; otherwise, it could result in a systemic breakdown. It also underscores the importance of managing these disruptions in a way that challenges the system but remains within its capacity to adapt and maintain functional integrity.

It is an important nuance to the Reciprocal Theory, underscoring that while change and disruption are essential for growth and evolution, they must be within the system’s capacity to adapt. Too much change or rapid disruption could destabilise a system beyond its capacity to recover and adapt, leading to potential failure.

This balance between adaptability and stability is critical to managing biological and artificial systems. It’s a concept that can be applied to a multitude of fields, from managing ecosystems to developing resilient infrastructures and organisations to understanding physiological responses in biology and medicine. The slenderness limit serves as a reminder of the necessity for balance in promoting change and innovation while preserving stability and integrity.

Abstract

Which came first, the system or the off-balance?

The chicken and the egg metaphor or the butterfly effect of the theory.

Considering the premise that the current systems, such as living systems, result from an evolutionary cycle enabled by the triad condition of the dynamic shift of balance and the process of struggle and adaptation.

The current matrix of a living system results from the genetic information passed down through previous generations, with each generation improving the same system.

The question is, how far back should we go to define our starting point of genetic information?

The theory hypothesises that matter was initially in a given balanced state. Then, an imbalance triggered a cascade of chain reaction cycles that enabled the emergence of all the systems we experience today.

However, this suggests that the embryonic information of all systems was present in the balanced primordial matter.

Then, what is the correct articulation? Does the system require balance disruption for its evolution, or was it born out of the off-balance? What was first, the system or the imbalance?

On the other hand, stating that a system requires balance disruption for its evolution suggests that the system already existed in some form before the disruption. This could align with the view that the ‘system’ is not a static entity but a dynamic process of ongoing adaptation and evolution driven by disruptions to balance.

Perhaps it is not a matter of what came first, the system or the off-balance, but rather an understanding that systems and balance disruption are two aspects of a unified, ongoing process. Just as a river cannot exist without water, the concept of a ‘system’ cannot exist without the dynamic interplay of balance and off-balance.

Given our current understanding of life and the universe’s beginnings, answering the question precisely is challenging. However, it is an intriguing topic for exploration that could shed light on the fundamental principles governing the emergence and evolution of biological, social, or physical systems. It’s a profound question that spans the boundaries of biology, physics, philosophy, and systems theory.

 In line with this, life itself is the manifestation of the ongoing process of balance, disruption and struggle for adaptation. The fundamental function of breathing is yet another example. There is a precise balance of the oxygen and carbon dioxide ratio needed in our body. We don’t just need oxygen; we also need carbon dioxide. Carbon dioxide is a guardian of the pH of the blood, which is essential for survival. The difference is that the latter is produced within our system, whereas the oxygen we inhale from Earth’s atmosphere.

The processes happening at the cellular level within our body constantly challenge this balance, where the oxygen burns into carbon dioxide. We continuously maintain this balance through the struggling process of breathing. We’ve become so habituated to it that we do not perceive it as a struggle, though there are situations when this becomes a struggle.

 We perceive our body as a solid organism when, in fact, its elementary building blocks, chemicals, mainly consist of emptiness. The distance between the nuclei and the electron cloud is so large and full of nothing. It’s all held in place by the fundamental law of electrostatic balance of the interplay between negative electrons and positive protons. And yet, in a world of a perfect balance of Hydrogen with no disruptions, Helium would not form. With no challenge to the balanced state of the chemical elements that form our living organism, life would not be.

We defined concepts such as Time and Entropy as merely representing a constant phenomenon we observe. That phenomenon is the ever-happening process of Change driven by a continuous challenge of the Balance state and the struggle to re-establish equilibrium within matter. If the Balance could achieve constancy, Change would stop, and Time and Entropy would halt. Life would cease to manifest!