6
A Continuous Survival of Species? Crisis and Consciousness Productions

6.1. Introduction and general considerations: what’s new behind life?

Although people are sometimes frightened by the discontinuities of concepts such as life and death, it should be noted that life is not a beginning and death is not an end. These are simply steps in a never-ending process. Each of them has its own characteristics and usefulness. In fact, one main concern is related to the notion of uncertainty; here, the distinction must be made clearly between discontinuity and uncertainty because the notions are not involved in the same way in a sustainable process. Now let us see how in life, birth and death are involved in this framework, and why they are so useful. The “survival of fittest” notion is widely misunderstood. Many scientists wrongly assume its meaning to be that evolution always increases the chances of a species surviving and growing ever stronger in a more sophisticated way, but sometimes a population may become less fit and lead to extinction [NS 07].

Indeed, in nature, any complex system is always a nonlinear dynamic system (NLDS) and comprises positive feedback loops as well as negative ones. This means that equilibriums are difficult to achieve and may converge, according to very sensitive conditions, either toward an attractor increasing the fitness of a species or toward a speciation including a major deviance which will be fatal when the environment changes. As for the structuring laws in physics, if a system generally evolves toward more fitness, and a better structure, this is because there are some asymetries which force the system to converge toward a given attractor type.

In this subject matter dedicated to the evolution and survival of species, we can state that biologists have determined a science of biological purposes (the so-called finalism) in less than a century. This teleology is based on transmission errors of genetic information. In fact, the information contained in DNA (or deoxyribose nucleic acid, the hereditary material in humans and other organisms) is transmitted from generation to generation of a species, but this information is subject to change:

  • – gene permutations;
  • – errors in recombination during replication of DNA, despite error self-correction capabilities included in the basic DNA program/capabilities, etc.;
  • – genetic mutations (whose origins are very different).

Indeed, detrimental mutations can reduce a species’ chances of survival. Mutations provide the vital raw material and diversity for natural selection:

  • – if the mutation rate is too low, a population will not be able to evolve fast enough to keep up with environmental changes;
  • – if a population’s mutation rate is too high, detrimental mutations may accumulate faster than natural selection can eliminate them. Eventually, when the number of mutations exceeds the “error catastrophe threshold”, a population can be led to extinction.

In this theory, sexually reproducing species are mainly involved since the exchange of genetic material between chromosomes can separate good and bad mutations and foster the diversification process. Also, a “mutation catastrophe” can occur as a result of sensitivity to initial conditions (SIC) in NLDS and, ultimately, change the evolution trend through disastrous consequences.

But … all these direct and indirect changes and mutations can be characterized at “random”. This indicates some important facts as follows:

  • – evolution is never oriented and directed toward a given expected result. Designed solutions are sorted out by some specific selection mechanisms (natural or unnatural);

  • – the direction in which adaptation occurs is only given, afterward, by the selection process;
  • – structures and organizations randomly occurring after some mutations are, still at a microscopic or local level, always effective prior to their use in a macroscopic and a more global level.

Thus, in nature, an organization permanently continues to evolve toward a greater complexity; as a result, this complexity requires new management and control systems. This is reflected (according to several successive selections–reproductions cycles) by the emergence of innovative proposals, a tendency to seek improvements or enhancements and, at best, the optimization of a function. According to this view, “the function is not the organ but the organ makes it”; in other words, the eye is not meant to see, but the function of the eye is seeing. Then we have to adapt and evolve with such properties and behaviors.

Just to return to the above main comment: everything in nature is not always optimized (as done, for instance, in operations research) on the other hand, nature is trying to find good compromises and to “do its best”. This can be easily understood if we analyze some biological facts as follows:

  • – It is said that altruistic behaviors promote the survival of a whole species (as does selfishness in some specific cases to enable the strongest individuals to survive from a disaster). Similarly, in our organizations and industrial companies, we learn that selfish individuals may thrive at the expense of altruistic individuals in a team based on cooperation and collective working (we are strongest together and we produce less negative decisions). But, making the group the “fittest” one, temporarily, in terms of efficiency and effectiveness, this can make it as a less competitive whole: on a mid-and long-term range, such cheaters can have disastrous consequences when faced with hostile uncertainties.
  • – The death of a living being or living organism is due to the fact that it consumes too much energy for some given functions provided within a given context: it must give way to youth. It is the same in a company when some people are incited to retire because a young employee is working harder with a reduced salary. This is against the general interest of a society. This is also a big problem since eusociality cannot apply (eusociality is a quite sophisticated social mode where (1) older people can help younger ones, (2) the continuous overlap of two generations of individuals can exchange informational assets and help together in fastidious tasks and (3) polyethism, with quite diverse skills and fertile individuals, reduces the bias during the production/reproduction processes).
  • Sexual reproduction allows us to introduce more diversity within a species, but not necessarily in the desired direction initially. Indeed, there are several ways in which evolution can reduce the overall fitness of individuals or populations. For instance, natural selection can take place everywhere – in genes, individuals and groups – in the economy level. What promotes the survival of a gene or the funds given to financial banks (when involved in a subprime crisis) does not necessarily increase the fitness of the individuals carrying it, or the society of these individuals subjected to this unexpected event. In the same way, there are parasitic DNA elements, or transposons, able to spread through a population even though they make their host organisms less fit. Transposons are one cause of genetic diseases such as hemophilia and may cause the disappearance of an individual/species. Genes capable of driving populations to extinction might have a practical use, however. Biologists are exploring the possibility of releasing engineered parasitic DNA into populations of malaria-carrying mosquitoes. It is the same in the information systems where viruses are introduced by IS specialists in order to “condition” the Web and associated computing systems toward a given goal.
  • – In case of loss of the habitat or food reduction, some species are able to modify their reproduction rates and limit the number of individuals to save the species. In 1932, J.B.S. Haldane suggested that this could even lead to the extinction of populations: it is a kind of evolutionary suicide – for instance, when nutrients run low, individual myxobacteria (slime bacteria) may come together to form a fruiting body to produce spores. Laboratory studies showed that cheating myxobacteria that only produce spores and never help form the non-spore producing parts of the fruiting body can drive populations to extinction.

In each case, a need coming from a so-called “higher order” is sought and tends to words the survival of the species, in a short-medium horizon. Due to this concept of “survivability”, the characteristic of “life” is to select improved (or better adapted) solutions and make species evolving toward innovative patterns and viable strategies, then to ensure reproduction, not genes, but organizations and strategies.

In this context, is survival in the direction desired by our changing and evolving environment? Probably not: if we could go back, following the “trace” of our evolution, and restart forward, the evolution of each species would be very different, far from the image now observed, at a given time.

Do we have to talk in terms of improvement or survival of species? A species is the product (sink or result) of a specific biological evolution and not its source, or the origin of a mutation. Moreover, the goal being sought and carried on, in a complex system, is not the element (or agent) that directs the adaptation of a structure, organization or behavior. It is only a resulting feature or behavioral function or characteristic since any order emerges from self-organization.

In the next section of this chapter, we are going to present a more in-depth study of the impact of these facts and proposals to better understand and provide solutions for some engineering or reengineering problems.

6.2. Life survival: introduction and model transposition

In administration and industry, we often talk about life. In the previous section, we talked about life. It is a main concern and we always try to understand how we could benefit from this unique experience to enhance our management and control systems. Also, in many published papers, whatever the field considered, people involve the so-called “system complexity”, but their way of thinking is not “complex” at all and a paradigm change is still required and expected in the way we define and design the governance, management and control of such systems.

Roughly, what characterizes the life of a species or a complex system is a set of three properties:

  • autonomy, which allows an organization not only to feed itself (hunting, fishing, eating, etc.), but also to manage energy (e.g. make fire, build devices for photosynthesis, etc.) and then to elaborate actions;
  • reproduction corresponding to an increase in terms of diversification and diversified potentialities;
  • adaptation or selection of “well-fitted” strategies to ensure the future of the species. Thus, life is not just information that we duplicate: it is a set of reactions to information that we try to replicate and disseminate.

Some of these principles are already applied in devices (robots, artilects or “artificial intellects”, etc.) designed by scientists and biologists. Generally speaking, we talk about life just because we intend to emulate human behavior and replace it, possibly in special situations (war, polluted areas, difficult access, etc.), or develop a so-called “augmented human being”.

The question, however, is never to know what is the purpose of life, or if our creations are in agreement of the purpose of life?

Are we violating the basic principles of life? As Gödel said, are we sure that, going toward more complexity, we are not digging our own graves? Quite often, our society is only involved in basic/material contingencies and concerned with short-term goals. In reality, we can pose the following questions:

  • – Is life intended to ensure the adaptation, development, multiplication or the endless complexity of a species or a system, and how?
  • – Is life, through the reproduction process, intended to ensure the survival or continued existence of a species via its progeny or generated descendents, whatever their level of adaptation?
  • – Life as we know, is it intended to accelerate the creation of new and better living species and avatars, able to dominate our “next” world?
  • – Nature, for instance, here the evolution of Nature, our mother, is it a source of life in the global sense of the word?

People agree on the fact that, from the beginning of the emergence of life in nature, the essential goal of any species is to ensure its survival, and hence its own existence, in a sometimes hostile world. Several approaches are identified:

  • adaptation to a given use: this requires changes in capabilities. The system involved will acquire or perfect some functional shape or pattern that allows itself to best ensure an objective;
  • coadaptation between several species (or a human being in relation with other conditions of life and functioning): indeed, the notions of interaction, cooperation and/or competition are of utmost importance to exploit the concepts of synergy, complementarity and dominance. From there, some hybrid modes of functioning called “comperation” (contraction of competition and cooperation) and “coopetition” (contraction of cooperation and competition) have been developed [MAS 06]. We will not detail them there.

The eusociality as defined by Michrner (1969) and Wilson (1975) [SHE 95] is used as the highest level of social approach in a hierarchical organization. It uses some concepts based on skills classification and also speciation to again improve the mode of functioning within a community. The term “eusociality” is well known to those who study the behavior of social insects such as ants, bees and termites. It focuses on the nature and degree of the division of labor, such as:

  • – reproductive division of labor (with more or less sterile castes, workers or soldiers);
  • – overlapping generations with people getting more or less experience in different areas;
  • – cooperative care of young while the workers are doing something else, etc.

For what purpose? This is specific to companies and organizations which can perpetuate some specific cultural values, and also accelerate the transmission of knowledge, know-how and expertise. It is a kind of optimal problem-solving approach, since the work and actions to be done require a minimum of energy and time expenses.

Regardless of these basic mechanisms, the evolution of species also uses several organizational factors that reflect the specificities of the subject/agent itself, as well as its role in the environment. For example:

  • – In the struggle for survival of a species, the concept of geometric progression, which characterizes, in general, their increase in number, always applies: indeed, it is important to compensate early life and random losses (life and death process, infant mortality, etc.), degradation or disappearances of individuals in some local areas, because in any complex system opposing forces and phenomena occur: action–reaction, creation–destruction, prey–predator, etc. Therefore, more species are borne than those required for survival and reaching a normal quantitative equilibrium. Similarly, within a company, there are always produced more products (or component sets) than can be requested for the same reasons. This is why an overproduction rate is predefined in any critical parts procurement.
  • – Each system changes in order to find a more profitable way for itself, and to give itself the greatest chance of success or survival. Once the best suited prototype design is achieved, the resulting product/agent of this selection will be reproduced and disseminated in order to perpetuate and propagate the system/species.
  • – Species subject to mutation and to be selected are “products” that are gradually changing; they are rarely the result of a spontaneous generation from scratch (ex nihilo). It is a process of continuous improvement punctuated (as we will see later) by breaks. However, the best-fitted patterns and structures are not immutable either: the environment with which they are in constant interaction also varies and adaptation processes are never interrupted.

In industry, as already suggested, the approach seeks the same, but the declination to know the final purpose of a business is different:

  • – when asking business leaders what the purpose of their business and organization is in the current environment of the society, they usually come up with three answers: wealth creation, employment and business activity creation;
  • – more rarely, the approach uses some kind of biological reasons; it is argued that the company is like a living being: without growth, it begins to decrease and dies or disappears;
  • – in some Western countries, where the generosity of elected leaders and decision-makers is well developed and exploited (with the money and goods of others), the trend is quite strong to bring attention and assign funds and help to sick and weak companies rather than to innovative ones, able to generate businesses, and also creative, ambitious and promising growth. Here, this subject company has a positive social purpose.

If we give a brief history of what the concept or purpose of the business must be, we can say the following:

  1. In France, during the 17th Century, the goal was the enrichment and development of the kingdom. At this period, for the Colbert era, many companies were launched and developed in new fields of activity; new businesses were funded by the nation as a sponsor but also as a buyer (e.g. the Saint-Gobain company in the glass industry). At the same time, in the 1660s at the initiative of Cardinal Richelieu, the French Indies (America and Canada), East Indies (Far East), North (Baltic), and Orient (Asia) Companies were established. This fulfilled a biological-like need, since, behind the kingdom, all the French population could benefit from this initiative.

  2. From the beginning of 20th Century, industrial companies have been legally independent organizations; they combine different production means to provide goods and services that are sold on a market to make a profit. Earnings are primarily used to cover the return on invested capital. The providers in capital are quite varied: they may include independent proprietorships, partnerships, external corporations, etc. Therefore, we have moved from a biological scheme to a more individualized economic model with notions of strong returns on investment with a smaller number of recipients.
  3. Today, the concept of profit earning is a major concern; because of the strong individualization of our society (due to hedonism) associated with the emergence and dissemination of the so-called greed attitude, many changes have occurred. The recipients are primarily shareholders and company executives, and to a smaller extent the employees of the company; the risk-taking, however, is only concentrated on the private shareholders. So we have switched to a “cancer” mode, which was only generated by the distortions of our society.

Finally, with regard to the geometric growth rate discussed above, we can transpose these statements into industry:

  • – For the production or reproduction of goods and services, the same multiplication or propagation process applies to any shape, pattern or configuration of a selected product.
  • – Are we still manufacturing more goods and services than required to satisfy our needs? Is this simply due to the fact that there are scraps, garbage in provided parts, malfunctions or even volatility in manufacturing processes?
  • – Again, in terms of objectives, what are the differences, concerning the content and finality, between an industrial objective and the one used in nature? What is true in nature?

What has been discussed above is not relevant to existential questions: these are substantive issues that go far beyond the concerns of environmentalists or “free riders” and any kind of parasites. It only consists of knowing whether the business models and organizations built by human beings are consistent with the final purposes of Nature: are the business models that we have developed viable? It is a question of sustainability, holonism and reliability of our creations, and in a direct way to ensure our survival. In fact, it should be noted, within the framework of this section, that interactions to be considered are linking three subsets, or areas, of agents; they are located in Figure 6.1.

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Figure 6.1. Significant interactions in a production system

6.3. Discussing the situation in between the three areas

We may focus on the fact that relationships between a company and stakeholders are of key importance today. Efforts are underway to involve the company in a wider role: we quote this trend as the so-called “social responsibility”. The objective is to better cover relationships between Area 1 and the “full” Area 2.

The debate, however, is unresolved, since the concepts at the individual level (because of the “hedonism” associated with the individualization of the society) are not yet taken into account. The same happens with the notion of ethics and, more specifically, the “professional ethics” that cannot be modeled and formalized because they directly involve the individual consciousness of each person. Hence, the survival problem between Area 1 and Area 2 is not fully covered.

Here, we are neglecting relationships between the two subsets (Area 2 and Area 3) since they are out of the scope of this section.

Similarly, if we consider Area 1 and Area 3, we are addressing the “societal responsibility” of a company. At this time, this point is not fully covered by the so-called social responsibility of an enterprise (SRE). There is a big gap between industrial companies – they are often like “multinational” or “transnational” corporations – and governments: the concept of their “global governance” is not a common topic with common interests. Many responsible people talk about “e-governments”, meta-governance, open governments, etc., but nothing is really defined and effective. It is an open question.

By analogy, it is as if we were trying to run without our cerebellum or brain, and vice versa. In terms of “survivability”, we are not ready for controlling “nature” or the evolution of society, and we can still improve our governance approach. Indeed, everything in nature is based on antagonisms and ambivalences. Consequently, we have to keep in mind some new paradigms, all of them related to key “sustainability” issues:

  • – with new technologies, robotics and transhumanism, it will be increasingly difficult to create new and enough jobs;
  • – the evolution of societies weakens freedom as it creates more laws, prohibitions, regulations and rules. The space for freedom of each citizen is therefore strongly reduced;
  • – in terms of governance (through the effects of the Web and social networks), there are increasingly fewer intermediaries between a state, its government and individuals; hence, a change of political structures is required to reduce them, to implement the simplification of the governance through a country: who can decide what is good for us? Who can generate and elaborate a real “Citizen and Democratic Constitution”?
  • – new technologies provide some autonomy, capabilities and authority to each of us (e.g. Google and Big Data), but they reduce our autonomy because everything is known, everything is seen, nothing is neutral, and everything becomes unbalanced (information asymmetry);
  • – the collaborative economy is an indisputable advantage, but sharing economy and information is also a spoliation: when information is shared, we cannot gain any advantage over a competitor and are becoming dependent on a structure;

  • – the Web provides better communication facilities than those in the past. It enables us to reduce the exclusion of many populations, but it changes the economic context the content of jobs and the emergence of new needs so quickly that it accelerates the phenomenon of exclusion.

6.4. Discussing the situation inside each of the three areas

The concept of survivability in our society is such that we cannot easily ignore that death is a part of our evolution anymore. Indeed, there is an antagonism between transhumanism (extension of life) and the need for freely disposing and leaving the life as desired:

  1. At an individual level, physical death is sometimes considered as a catastrophic failure and everything is done to delay this occurrence. It is a public health problem and many discussions are undergoing on this subject, associated with various debates on aging, etc. This thinking is quite developed and, in Western countries, for instance, we try to conduct wars (to play war games as well) in a surprising way: violence is focused in acts and images, concentrated among partners who are the opponents, but there is no death, or dead people, on the winner’s side; it is a “clean war”.
  2. In the enterprise, the same philosophy applies: quite often we hear about strong management in business, about the so-called “killers”: e.g. a cost killer in the procurement area, etc. Everyone accepts, and this is the same with the employees, that some people can be fired or retired just to save a company (it is a kind of altruism). But no one allows the fact that a company can go bankrupt and die because this is the end of a source of revenue: that is when an entire community stands against such a deadline. Then it is the start of operations conducted by politicians and public authorities to avoid or delay such a fall.
  3. For different reasons, whenever a country is threatened with bankruptcy, the entire international community is involved and they participate, through the banking system, to save an entire economy. It is the current state of affairs. It is true that the interactions between each country and societal issues are such that everyone is forced to cooperate to avoid or delay the deadlines, or simply the so feared death of a country. This contrasts with the approaches known a thousand years ago: when a war ended with the possible last lap of a whole nation. Now, given the concepts related to a general interest, our cultural and economic concept of the death, our mind is more than ever oriented toward survival and global approaches.

This is why our strategies about death and survival have deeply changed our recent views in terms of monitoring, management and control of complex systems.

6.5. Evolution of life: impact on management decision systems

All these considerations about life and its aims, thus pose the problem of how complex systems are managed and controlled in life sciences. We can observe, more specifically, how one obtains a robust decision, steady adaptations, and how we can replicate and propagate a solution. To do this, we can proceed to a set of observations, model them, and transpose their principles and mechanisms into the industrial, economic and administrative systems under study.

In this section, our intent is to describe some challenges related to the decision support systems (DSS). Several types of problems have been identified. Among them, we can select the following problems because of their link with biology, the brain and their connection with survival principles. They are:

  • – data collection and measurement, and, more specifically, the perception of subjective and sensory data. This is of key importance in an enterprise where decisions are based not only on factual data but also on perceived feelings and information communication;
  • – the organization of decision processes (just because the brain does not work either as an artificial neural network (ANN) or a conventional computer);
  • – the decision process includes the human being, most of the time and mainly for complex decisions: everyone always involves reasoning, emotional and computational capabilities. The emotional part of the decision process is generally not modeled in our business intelligence (BI) technologies and it is important to try understanding what kind of paradigm we are faced with.

Why this concept of the “brain”? What are the relationships with the above comments? Indeed, the brain is a culmination of life in terms of management authority, control, monitoring and steering entity in life sciences. It is a model to be studied: here, we will highlight a few characteristics and determine which are best suited for a possible transposition and improvements.

The advantage of analyzing what is happening in the brain is that it is able either to process sensorial data or quantitative and qualitative information; thus, it is a model aimed at understanding some innovative decision-making and performing better computational and reasoning activities, data-or knowledge-based.

6.5.1. How does the brain work? Are we exhaustively perceptive?

In a network, the first encountered need is related to the communication between nodes or agents. This regards the exchange and transportation of messages and information throughout the network between the agents which can be computational centers, database centers, etc. In telecommunication systems, and this is rooted in our minds, everything is wired (the information exchanges are often done through wires and connectors). It is only recently that the growth of wireless features and protocols has emerged: the transfer mode could evolve toward less physical constraints and became fast and low cost.

Also, for pattern recognition purposes, ANN was developed; in the same way, these programmable networks comprise a lot of interconnected nodes. Here, the wiring is done by software, but the main basic principles remain the same: individual pieces of information are processed at node level and propagated in the network to influence the evolution of each node in the neighborhood. This structure is simpler but, in terms of structure, quite similar to the one encountered in the brain.

In many works in biology, it is said that one neuron communicates with another due to the axons and through the synapses by an exchange of molecules (synaptic communication using neurotransmitters) in ionized channels. However, the migration of such electrical particles creates an electric field in the vicinity of the synapse:

  1. In terms of exchanges: this wave field can exert an effect on the neighboring nerve cells, changing their status, etc. This is equivalent to an information transmission that will change the state of the neighbour neuron. This is also equivalent to a learning action. On the other hand, as for the antenna effects in electronic features, mobile internet devices (MID) or computers, and based on our experience in advanced technologies, electrical fields can produce some disturbing influences on neighbors. In fact, by the ripple effect, as in a programmable network, there can be a very fast propagation effect between axons: this has to be proved, but it would not be surprising to get such effects since the most recent available measurements show that we are used to seeing electrical impulses in nerve circuits move much more slowly than electromagnetic pulses (reflex actions in the human body). This is a general fact: we are wrong in thinking that information transmission is done in a unique way from one node to another. In nature, there are a lot of possible and existing ways to provide a piece of information, quite often … faster than thought.
  2. Such speculation reinforces the fact that we are only studying communication between agents through the wavelengths that our senses can detect and measure. For example, concerning the visual signal perception (here: sight), the eye works only in the wavelength range between 0.4 and 0.8 µm. However, in nature, anybody or any agent which radiates, or which transmits information, does so on a frequency spectrum that is much wider: as a conclusion, when observing our environment, our perception of the facts is physically limited: we are like a blind person and we are just capturing a minimum set of data in our environment. Hence, there is a lot of useful information we cannot use to correctly perceive a situation.

Thus, with regard to the above two comments, we can draw the following conclusions to be applied into any complex system:

  • – we often ignore most of the facts associated with an event because our perception of real facts existing around us is limited;
  • – it is difficult to detect weak sounds (small signs foretelling an event) as well as for some hidden data we do not measure; thus, we are never able to anticipate an underlying risk;
  • – our ability to react, when faced with an indiscernible event or unexpected information, is sometimes too slow and does not allow us to decide satisfactorily on the risk situation.
  • – in many information systems, decision-makers are often reasoning and deciding from inconsistent data (incomplete or imperfect, contradictory, redundant, etc.). Most of the time, they correctly cover the most usual common cases. In complex situations, however, we will analyze, interpret, speculate and generate rumors based on partial, biased and inconsistent information: this deviance associated with the so-called SIC is such that we will rapidly diverge from the real expectation (unpredictability as suggested);
  • – it is known that too much information kills the information. In fact, there is too much information in some areas of perception and not enough in other areas. So, all systems of decision-making are “incomplete” (as per the meaning of Gödel).

6.5.2. Levels of consciousness in the brain: application to DSS

According to Antonio Damasio [DAM 10], Professor of neurosciences at the University of Lisbon (Portugal), the living being, to decide and survive, mainly uses three levels of consciousness as involved in cognitive processes (see Figure 6.2).

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Figure 6.2. Basic components of a human brain (http://serendip.brynmawr.edu/bb/kinser/Structure1.html)

Thus, with regard to the above two comments, we can draw the following statements that can be applied to any complex system functioning:

  • – At the brainstem level, the “reptilian brain” ensures the basic functions of an animal necessary to its life and survival. The physiological system dedicated to regulations and the primitive impulse processing, such as irrational fears, are located at this level. These functions would be the first to occur during the creation of a living species.
  • – At the midbrain or limbic system, the so-called “emotional brain” combines pleasure and displeasure associated with stored memories (punishment–reward system). Therefore, there are storage and analysis functions on specific information developed for regulating given internal organs/organisms. Again, at this level, we can perceive some fear, and be sensitive to rewards.
  • – Finally, the cerebral cortex, or the neocortex, mostly located in the periphery, is the seat of learning, memory and consciousness: it enables the thought of a human being and labor activities such as the conscious planning of actions in order to be alive and survive. Thus, one can anticipate and understand certain or random situations, develop behaviors and attitudes, feelings, etc. In this area, we can quote the memory-prediction framework theory of brain function created by Hawkins [HAW 04]. This theory concerns the role of the mammalian neocortex, its association with the hippocampus and thalamus in matching sensory inputs to stored memory patterns and how this process leads to predictions of what will happen in the future.

It is important to note that artificial decision support systems are structured following the same architecture. Without conducting a formal analysis, we can note that in industry or economy, for instance, most of the control and monitoring systems provide functions based on signal analysis compared to thresholds; then, these tools select and generate control actions and regulations that are applied to organs or “agents” to be kept under control.

Sometimes, to get more reactivity and better adaptivity, some “reflex” processes were designed and integrated into more complex tools; within this framework, an “artificial neural network” was developed. Through its learning abilities, and its “life and survival” like oriented capabilities, scientists thought we had discovered a way to eventually replace human beings. In fact, we are far from that reality since ANNs are only over the first level of unconscious action or basic functions existing in the brain; moreover, we are not yet able to achieve artificial neural nets including several thousand synapses structured in a complex way as observed in reality.

Also in the same field of smart management and decision, recent studies have shown that to make a complex decision, it was necessary to integrate two components, associated with the limbic and neo-cortex systems as explained before:

  • reasoning: this relies on knowledge, logic, memory and computational processing to develop decision strategies. However, such computational systems are of a deductive and logical nature. The brain can simulate some kind of thinking as subsets of these operations. However, the brain has no hierarchy of logic gates and operators as a computer has [DOZ 02]. A deductive system has no place for love, hate or fear;
  • emotion: at this stage, we are switching the active mode of a decision by introducing some psychism – associative and emotional capabilities are necessary to link ideas, strategies and emotions. To go to take an action and to take a decision in practice, we have to decide in the most appropriate manner. Here, the emotional part of the brain is required. Indeed, to make a choice, it is necessary to quickly assess a situation, enhance the impact of an action, to motivate ourselves and “feel” when and how to take a decision or not. It is known that logical conclusions and needs to act have, quite often, emotional overtones as in, for example, the judgment that a greed attitude in economy is not only logically incorrect and lacks ethics, but also despicable and unfair. Only the human brain is able to associate such emotion with the achievement of the decision process.

Thus, we see that it is the second level of consciousness in the brain (emotional) and the third level (reasoning) that are mainly required to take a complex decision. We therefore have not invented anything new. Some millennia ago, the lives of the people were like that we have today: filled with achievements, setbacks, cooperation and competition, rationality and strong emotions. We have just added in our modern practices, a different culture and the automation of some processes and human activities.

Two observations arise when assessing the reliability and adequacy of support systems for decision in our education systems dedicated to future managers:

  • – the emotional part of the decision is not integrated into management courses in most of the major business schools: this is simply due to the fact that the decision support tools that are taught are of the analytical kind; mentally, in the business area, we are rationally working without any emotion. Also, it is often said that economy is ignoring emotion. In addition, we do not know how to model and put into the equation the subjective part related to emotions;

  • – concerning reasoning, we are not much further forward: cognitive processing is based on deduction, abduction and induction mechanisms. Being indulgent, our DSS can work satisfactorily for the deduction. In terms of abduction and syllogisms, there are few existing tools, often not exploited since we do not know how to proceed with new created knowledge; finally, at the level of induction, it is a virtual desert.

6.5.3. Survival and decision-making: what makes the difference?

Before reinventing a wheel, it is advisable to recall some simple facts and to comment on how we are doing in our daily practices to take a decision. Briefly, our approaches, methodologies and tools are largely dependent on information technologies:

  • – In our technocratic management and DSS, we are able to process, at a high speed rate and in simple ways, great volumes of information. On the other hand, in our brain, we can carry out more complicated processing on lower volumes of information.
  • – Our DSSs are based on conventional technologies (statistics, operations research, knowledge-based systems, information systems, etc.), which are only a few centuries old. Our brain, meanwhile, has an architecture and processing capabilities that have evolved over hundreds of millions of years.
  • – The final purposes of the systems are not the same. At a human level, the technologies that we have developed are designed for developing a business, to help us in decision-making and to enhance some of our capabilities (augmented live beings). Therefore, the objective is to take decisions depending on maximizing a profit or minimizing a loss. In the brain of a human, the objective is broader: it is the survival and the evolution of a species that has to be considered. Then, approaches in use are quite different: the objective is to avoid a risk, then to manage the replies to enhance adaptation and domination.
  • – Our artificial bio-inspired systems are based on the development and implementation of functional models, which can be very complicated. Meanwhile, the brain uses small and associative computational units that are much simpler (a neuron or set of neurons), but interconnected, and in very large numbers, as we have in programmable networks.

Therefore, despite appearances, the architecture, mechanisms and techniques used in actual DSS, operations management (OMs) or even BI tools are totally different from those present in the brain. We could say that our practices have been automated and accelerated, but our in-depth ways of thinking and our decisional culture did not sufficiently evolve.

Returning to the level of consciousness as expressed in the brain, and more specifically related to reasoning, it is not only distributed in the cerebral cortex, but arises with regard to the activities emerging from several brain levels (the brain stem that connects the cerebral hemispheres and spinal cord, itself crossed by the sensory and motor pathways of the living body). Indeed, there is first an opportunity to immediately capture the sensory information that is going to the brain, and then to process and prepare quick decisions. In this strategic area, the reasoning ability is quite elementary and rough: it is primarily intended to provide a reactive survival of an individual live being. For instance, Professor Damasio bases his demonstration on the example of a lizard that is capable, with its tongue, of capturing a fly in a few milliseconds, and swallowing it: in this case, we can see that pattern recognition techniques and reflex actions are necessary (attack or escape, etc.).

Therefore, as experts say, it is of an awareness consciousness (protoself or a neuronal self containing an emotional information – from A. Damasio’s “proto-Soi”), which is fundamental and at the basis of homeostasis. At this stage, a live being can assess its internal state and, thus, maintain its internal equilibrium: “living being”, feelings and internal sensations to answer its needs and satisfy them if necessary to perpetuate its attendance, that is to say, its survival (resilience purpose).

In a second stage, awareness is the basis of any action/reaction to improve any adaptation. Indeed, it is then necessary (once internal changes and disruptions are detected) to immediately analyze them in order to compare them with predefined or experienced scenarios: here, the “consciousness-core” of a species can react and adapt itself to the environment.

This architecture is important: it shows that the coping and adaptive mechanisms used in information systems should always be located at the lowest level of any IS. Adaptation is a basic property of any “smart system”; its design must not require a complex model for its development and implementation.

6.5.4. Consequences

In this chapter, we have often discussed the fact that human behaviors were based on equilibriums. Since everything in nature is based on quantum fluctuations, fractal discontinuities and nonlinearities, an equilibrium calls for antagonisms with positive and negative feedback effects depending on the situations encountered and the necessities of the time they occur.

In the brain, the same effects are observed in different locations: the areas of the sympathetic and parasympathetic nervous systems (to deal with emerging actions involving fight or flight reactions as appropriate, for example) and the parasympathetic (more oriented toward functions such as rest or digestion, which also involves a high consumption of energy, in a different way).

Also, as explained earlier, this approach is used in all the so-called “duality” phenomena in any level: physics and material, genes, life forms, planets, etc., in nature.

Not to deviate from this rule, this involves the design and development of, in any business and organization developed by a human, adaptive control and management systems incorporating such a duality.

Similarly, at the highest and most sophisticated level, the cerebral cortex, is the “autobiographical consciousness” that will allow us to remember past situations, our history and experiences, recalling the past, and to deduce meta-knowledge to better anticipate future situations, innovative approaches and solutions. Thus, we can derive some lessons:

  • – As the brainstem is a primitive structure, typical of many living species, even reptiles, this means that most of the animal and human kingdom can make decisions. In a company, any employee can also take consistent decisions: this raises the problem of sharing and distributing the authority and decision process in a complex organization.
  • – Since we can make predictions based on previous experience and knowledge and perform analogies to determine the best-fitted actions, this means that we can focus our interest on knowledge technologies such as “syllogism” and “case-based reasoning” (CBR).
  • – Because we can make a statement on a past situation and anticipate future situations, for this reason we can express not only satisfaction and dissatisfaction, but also fun and disappointment or psychological pain. These feelings are a characteristic possessed by living beings: by analogy, in any complex organism, they are a guarantee of quality in terms of vision and perception of a statement. It should not, therefore, be considered that “pain” is an expression of weakness and human failure, but as a natural reaction to rebound and survival.
  • – Finally, any decision-making process always includes a rational and emotional part, an objective and a subjective part. We cannot take a reliable decision only based on pure facts. Any imbalance in one direction or the other inevitably leads to a non-decision and/or a bad decision.

6.6. Opening new thinking ways

Before addressing the subject of consciousness, it is necessary to introduce the notion of thinking. Thought is the result of the human brain activity. It thus abides with the same structural constraints, the same life principles and the same mechanisms that underpin complex systems. We can state that thought is a set of three elements:

  • – the thinking process itself, with reasoning capabilities;
  • – feelings associated with emotions;
  • – sensations and intuitions that are sometimes linked to unconsciousness.

6.6.1. When consciousness leads to ethics

Subconsciousness drives our inspiration, intention, mood and perception. Consciousness and action follow afterward. Consciousness strives on experience yet transcends it. Can we and should we attempt to predict the worst? Surely not, the good and the best are always necessary in the name of the ambivalence principle “everything is relative, everything is ambivalent, and the dreams can’t exist without nightmares”. The issue is not to know what will happen and when but what can happen and/or what could happen.

ch6-f003.jpg

Figure 6.3. Brain mechanisms: from unconscious to conscious [STO 12]

6.7. Consciousness as an iterative feedback process growing from one level to another

A talk on consciousness should deserve a bit more depth. Isn’t man a “machine” dedicated to producing consciousness? There is not any other envisagable “production”.

We truly are a biological machine. Yet, beyond biology, there is the “spiritual mind”. Therefore, we go from the knowledge manipulating state to the thinking state, then to the consciousness state, and we come to the imaginary and dreamy state (and why not to total happiness/love?).

Yet, going back to nature, which gets more complex ever, and to the notions of co-evolution, there are communities of individuals above man, in strong interaction and that auto-organize. Similarly, the interacting individual consciousnesses will get more complex and generate a supra-or meta-consciousness (a convergence toward an attractor of the “collective consciousness” type through the transpositions/evolutions of these individual consciousnesses). Beyond this point, we would jump to the extra/multi-terrestrial universes. That is the kind of information that would then be possible to transmit, from in the beginning … all its information (material and biological). Then, the unidimensional DNA coding needed expansion into several dimensions progressively in order to develop consciousness. Minerals, plants, animals, and soon, a 4D over-man man will be modeled and added to the stack. Are we still yet to see this? We cannot tell since the notion of dimension is a human mind construction. Something to think about.

While we uncover how our brain works, we can measure the developments to integrate in terms of governance sustainability or, more specifically, management. For instance, the management process in a company was first geographical, hierarchical and rational (procedural), and then became organizational to cover the whole enterprise. Finally, the process is becoming much more cognitive through the control of information, senses and emotions. Now it will be dematerialized to gradually give way to ideas, autonomy and to the unconscious.

How can we conduct such changes? To better understand the new ways of thinking, we will go back to basic considerations relevant to sustainability, as expressed in our bio-capacity-oriented world (widely “resilience” oriented). This will also enable us to disassemble some quite conservative views.

Overall, nature has provided us with some basic mechanisms to enable man to survive, adapt and evolve. These capabilities are needed to cope with permanent changes to which it has been subjected.

In the following, we will not study changes related to the influences of external resources such as air, energy and water pollution (since this has already been the subject of a previous book [MAS 06]). We will also not focus on some in-depth changes brought about by technology (this is the subject of a separate chapter). On the other hand, we address two underlying causes of the evolution of systems that are addressed by many of us, often in a subjective and emotional way, which have a definite impact on management systems and decision-making in enterprise. They are:

  1. the switching of wealth which highlights the rise of new countries and dominant populations and creates uncertainty, fears and changes in a society;
  2. the emergence of new thinking and new economic theories. A business is not just a process; it is a set of humans working together. This is subject to the inherent major ideological, existential questions and this modifies, of course, the concepts of culture, the priorities and motivations of each individual … in a community.

Indeed, the economy, like the evolution of organizations and industry, cannot ignore some major changes in the cultural environment that will profoundly affect them and generate new behaviors, new priorities and new strategies. We can only regret here that companies, whose sole and understandable concern is expressed in terms of performance and competitiveness, do not have enough questions about their final purpose, and also on several points we will develop further: their operations, organizations and economic development depend on them.

How can we exploit the results from research and transpose the scientific approaches into the real world? In present times, everything is growing up iteratively (in pseudo-random mode) and is not amenable to prediction, since most results (e.g. fractals) belong to the imagination and we do not know how to draw benefits for new products directly.

6.8. Life and equilibriums in ecosystems

Companies, and also the military, face three decision management levels:

  • – the strategic level related to the long-term vision, main objectives, business plans, etc.;
  • – the tactical level which consists of defining the options that we have to choose in a setting where the outcome depends not only on our own actions but also on the action of others.
  • – the operational level which concerns the definition and the application of the algorithm to conduct the action, and thus to … play.

Hereafter, we will focus on the tactical level: it explains how the player of a game (or a decision-maker) has to proceed to develop successful solutions. Quite often, to increase the chances of success, a player has to combine several tactics over time, according to the opportunities of the game. Nothing is definitively acquired, and nothing is black or white: it is always necessary to find good equilibriums and combine several approaches simultaneously.

This is exactly what happens with sustainability: we will not describe in detail the theories behind either the Bayesian or dynamic games, or the Nash equilibrium theory; instead, we will only focus on the fact that a solution is a tricky and complicated equilibrium between rationalities, emotions, psychisms, dynamic capabilities and desires. Life is a marvellous and evolved field of operations: it is an advanced and interconnected information system; it is a complex decision system and game theory is found to be operating everywhere.

6.8.1. About the need for changing some paradigms

Our thinking and our approaches in modern society are mainly influenced by our world. For many people, it is a real world, continuous, solid in the sense where objects around us are firm and can be handled and measured. It is also a rigid and dogmatic world with its principles and mechanisms that bring some stability as well as rigidity in terms of flexibility and abstraction: it is thus difficult to get a world open to in-depth adaptations and able to understand different outside worlds. This is perhaps not the world desired by life, but one that was built by the human species, a world deviant from its true nature.

Similarly, talking about deterministic chaos and fractals in economy, organizational management or organizational theory is often regarded as an illusion: using “real numbers” or imaginary numbers to express the dimension of our universe to represent real, natural or built structures that surround us is sometimes unthinkable.

Continuing to use, for example, in finance, the same algorithms created 100 years ago, and simply incorporating them into mathematical models “simply” running more and faster is not an indication of genius. A flash of inspiration would have been to better integrate the hidden capabilities of the information systems to change the working processes in this area.

As mentioned before, our knowledge about the human body shows that perception and detection of sensory information are just based on the usage of a small range of electromagnetic waves’ transmission capacity: vision, for example, one of the most advanced of our senses, works only in the frequency range of 0.4 to 0.8 µm with a peak spectral sensitivity at 481 nm. We always talk about our five senses, but don’t we have another one? Less or badly exploited?

In terms of research and development, for example, the way we address a problem with “finite” and limited concepts sometimes leads to the development of complex solutions (much more complex than the system under study itself); this deprives us of the wealth provided by new ideas or innovations that various and unpredictable paradigms can bring.

In addition, this brings us to address the problems of reasoning, evolution and life … in general. Indeed, insofar as we live in a small world, with shrinking views and limited concepts, it is normal to have difficulties in understanding the richness and capabilities of the world, and not to be able to adapt our species easily as soon a breakthrough occurs.

Our confusion with regard to unknown and uncertain futures, as well as our understanding of the universe and our limited ability to exploit opportunities in the world around us, appears at this level. Are we not missing our imagination? Is it possible to get out from these ways of thinking?

For example, it is sufficient enough to consider the topics that fascinate some of the people: what is the origin of the universe? At least, what happened during the period of time preceding the Planck wall? Many physicists are trying with the means at our disposal, but also from existing theories (quantum physics, unification theories, general relativity, notions about the cosmic time, etc.), to get a glance and define what could happen … from what we know about our present. We stumble on the development of suitable models, new paradigms, etc.

These new paradigms and associated models cannot easily emerge from our brains because we are still governed by limited modes of thought, some specific cultures, and it is difficult to extricate ourselves from material contingencies which have “wired” our brain in this way. Also, we cannot easily be all aware of the reasoning and abstraction facilities provided to us by nature. In organizations, or even in service societies, which are the emanation of human activity, this same rigid and abrupt context applies: we are blinded by a lot of operating procedures, specific rules and conventional working processes. Our intelligence is “bounded” and we are like blind people who have difficulty in imagining and formalizing abstract patterns.

6.8.2. Application to ecosystems

In this example, we try to illustrate some ways of thinking and practices that are sometimes discussed, or subject to emotional reactions, because they are often based on inconsistent and incomplete information (in the sense of information systems).

Every ecosystem has a natural inclination to grow, adapt and optimize itself and then to remain at a steady state. Doing so tends to bring more organization, and thus less entropy, in such systems. Is it consistent with the principle of life?To achieve this statement, it has a structure with associated functionalities that will allow each of their components to benefit from advantages provided by the stabilization of the system that underlies them.

Again, we find this need and stabilization principle in other areas such as optimal pattern generation, overall functionality emergence in a complex system, maintaining the structure of an organization and meta-governance. Nature, to this end, has developed self-organizing, self-corrective, or even self-regulating approaches: it makes it possible to give a system self-defense capabilities against various aggressions and disturbances to ensure its survival and/or dominance in a hostile environment.

Just as we often speak about basic functions essential to life, we can talk about equivalent rules used in the search for balance in an ecosystem. Here, we just consider the pyramid of essential needs that has been defined by ecologists and we will adapt it to our needs. Therefore, a complex system comprises several levels:

  • – ecological structure (global/holonic modeling of the eco-structure);
  • – highlight of reciprocal interactions (system analysis);
  • – self-control;
  • – self-tuning;
  • – self-sustainability (self-sustainability of an ecosystem means that a self-sustaining ecosystem becomes self-sufficient in a given environment: it is autonomous, but it is also involved in its maintenance, preservation and survival; thus, it has also the possibility to keep alive in a given or desired situation).

We encounter such behaviors in living organisms: e.g. in a biological cell, we will try to maintain an internal balance, in harmony with all the elements of its biotic structure; we cannot ignore the participatory role of each of these internal elements to ensure the survival of the whole, but we do not know whether the whole will converge toward a global state.

Every living organism depends on agents with which it is in contact and that should not be ignored to ensure its own survival. For example, an animal never lives alone; its own existence depends on the world around it: i.e. other animals with whom it lives in symbiosis or competition, plants with which it has contact and relationships because they provide food necessary for its own life, etc. The ability of species to get elements of subsistence (food, water, living space, etc.) and their adaptation to changing environmental conditions (climate, modes of domination, etc.) or even their lack of diversity, and non-evolution of the species, are behind the decline and … disappearance of most species.

When an ecological balance is reached, this means that a dominant species has not eliminated its neighbors, but mostly it is living in symbiosis and in harmony with them; resources are shared equitably, or ethically at best (not necessarily so … in an optimized manner). This corresponds to a self-sustainability strategy that allows a set of interacting agents (in an ecosystem) to sustain their presence, their survival or their lives. In this case, one does not seek to optimize a function, but simply to seek an overall balance.

In an ecosystem, we are far from the concept of “global balances” as we know them in society or industry. Indeed, most of the time, we try to optimize an economic function, such as maximizing an income or profit earning, or minimizing a cost, expenditure and investments. Such an approach is also widely used in operations research, finance, in auctions or in multi-agent systems when looking for an equilibrium (e.g. Nash equilibrium): it is essential during a peer-to-peer negotiation for elaborating a decision. However, in most situations, we are in a specific context where each one tries to gain a dominant situation: this supposes that the involved partners are either competitors or independent opponents. For this reason, in our well-known e-business or e-enterprise, game theory principles are so often used.

In this section, we highlight the fact that many people are searching for a solution, the most profitable for a limited number of agents, not to maintain the continuity or the existence or the survival of an entire and global ecosystem.

In this sense, an eco-approach aims at satisfying a general interest in a whole system based on an overall goal. It is a holonic approach; so it is appropriate to emphasize the strength of this approach, which is much more powerful than that developed by the decision-makers in our modern and individualized society. This requires us, moreover, to implement system analysis approaches which have the great advantage of not converging in deadlocks.

6.8.3. Life: why and how? To perpetrate the survival of an ecosystem?

Life and death are normal and inevitable steps in the evolution of a system or a species. We can endure or cause death, but life is scheduled for this (cell death). However, as already noted, the same mechanisms apply to any system created by human beings and, within this context, it is important to try saying in what time frame and when a major event must occur. This is, therefore, a function of underlying causes related to the existence or the extent of the existence of life when a failure must occur, and then knowing until when, and it is necessary to perpetuate the activity of a system [BRA 11].

Due to its autonomy, an individual is now able to independently choose and decide whether he can continue to live or can end his life. This “local” decision is absolutely not related to a “global” decision that will involve a full species, or a total system, because the continuity of a species, an organism or an industrial system does not lead to an individual alone, but belongs to an entire community.

Indeed, the survival of an organism or species depends on all the constituent agents because the life of a system depends on the interaction between these agents and the coexistence of each of them.

Also, in other words, the survival of a system not only belongs to an independent external agent (he could be the chief operating officer (CEO) in charge of managing a company). Furthermore, this external element or agent, and this is new, lives in symbiosis with the system he “manages”, and he cannot decide alone, even with the agreement of a board of administrators, whether the company must survive, die or otherwise, without being in harmony with all internal agents, society and depending on factors such as entropy of the system, energy levels available to be consumed, etc.

It is both a moral and ethical issue:

  • – a moral issue: this is the reason why rules and laws are enacted to ensure the best possible coexistence in a global environment; the decision to abort or to perpetuate the activities of a system or species is a complex process, especially increasingly complex as soon as the system itself under study gets more complex;

  • – an ethics issue: this ethical issue, as already mentioned, cannot be modeled because it depends on the personal conscience of an individual.

In this section, we are talking about global optimization related to a general interest:

  • – in the context of evolution, first we have to consider the behavior of the agent or individual involved in the survival of a system. When faced with a difficult situation, it is sometimes necessary to be selfish, but altruism is also necessary. We wrote that competition and competitive spirit were sometimes required at the local level in order to survive and ensure the survival of a species or, conversely, to solve inexpensively (best global optimum) in a local problem eliminating or terminating the life of one or more agents of this species. However, the general plan is that altruism prevails because it is the general interest, through a global objective, not a local one, which has to be taken into account;
  • – any global decision is the result of a collaboration between the CEO, staff, employees and the society. Defining a global decision (elimination of an entire system or a species) to ensure survival and continuity at a superior level (in terms of global interest, more comprehensive, or more complex/sophisticated than the previous) requires embracing all the pros and cons of the ecosystem to evaluate the impacts and consequences of such decisions, and then implementing a global modeling based on system analysis. In this case, the assumption of a possible death of the system is not excluded, but it is delayed at the most appropriate time as a “completed and global staff work” approach with respect to the interest of everyone (stakeholders and nature).

6.8.4. Who is behind “survival” considerations? Who is the supervisor?

This philosophical question was raised by biologists when analyzing the DNA of living organisms; we appraise how this magnificent creation is remarkable: the genetic code (code of life) included in the DNA has a propensity to perpetuate itself (through self-correcting capability), to remain stable (due to its replication capabilities) and grow (in more complex assemblies or by self-organizing capability at a higher level) while setting aside some alleles and storing potentially functional sequences. We may wonder whether there is a goal which consists of perpetuating a DNA (representing life), perpetuating the human species or a living organism (which is merely the expression and representation of a living DNA). Then, is it the DNA or a given living being who decides?

By analogy, in a company that man has created we could ask some questions: when a big decision has to be taken, is it the fact of the company itself (self-determination or self-decision?)? Is it that one of its members (the CEO as in the previous case?) takes collective decision? Is it a supra-organization which decides?

When the “hedonistic” society evolves to become ultimately increasingly “eudemonistic”, that is to say, based on philosophical moral values such as “happiness”, the final purpose of life will evolve: welfare and goodwill will become the social goal of an enterprise. Which puts into question our rational and materialistic motivations that drive complex systems and define how to perpetuate them:

  • – Is it a broader public interest, associated with a global objective taking into account the environment in which we (or the system in question) evolve, that we have to define?
  • – Is this just a local interest or subject matter related to a society of “duty” that we have to promote? or hedonistic? or eudemonistic?

In a company, whenever we are faced with such a problem, making good decisions consists of asking some simple questions, as we are doing during a simplexification process.

  • – Troubleshooting: why do we debug a system? Why should we fix a system? Who interacts with it? Who is expecting what from which product service?
  • – What is the final and global purpose of a system or organization? What is the role and importance of anyone in the operations?
  • – What are the expected objectives, not in hardware/product/service, but at societal and transcendental levels?
  • – Is eudemonism the purpose of life?
  • – Who should decide? Staff? The leader or the CEO? Customers? Which stakeholder?

They are not only existential questions, but simply common sense questions that can position the system under study in a more general frame. Nature never does anything by chance; random is just for the mutations: every organization, living or inert, simple or complex is an essential stone required by the overall balance and the global evolution of nature. No-one, no individual agent, can decide in a simplistic way to stop or continue the activities of the system in which he lives.

The end of life, that is to say, the death of a system, should only occur as late as possible when the condition of its continuity is called into question (within a global framework: the survival, the development and the evolution of the integrating world).

It is an incentive to better address substantive goals of a company, better listen to its environment, learn better from the whole and better balance the interests of each individual within the society.

6.8.5. Survival methodologies: which attitude and behavior?

The first point is related to the role and importance of a crisis [EIN 09]. When faced with a crisis, some fundamental questions arise during the transition period, between the critical starting date of the “catastrophe” (disruptive event) and the stabilization of the involved system in the post-event period. The question is: do we have to stop, forsake or recover a business or just an activity? Should we try to survive, to adapt and transform ourselves and to change our activity?

Generally speaking, we are not able to take such a complex decision in a rushed time period because:

  • – the emotional brain is not working properly: it is influenced by the environment, data are not yet complete and consistent, we are subjected to a mental substance (dark matter), etc.;
  • – the global situation, impacts and consequences of the big trouble have to be analyzed (for instance, status and inventory of our situation, identification of what is needed, now and in the next future, possible action plans and prospective or expectations about the business evolution);

  • – simplexification: it is time to make things simpler, to reduce interactions, and to try converging faster and better toward an “acceptable” solution. As stated by Einstein: “all things should be only as complicated as they need to be”.

Again, it is important to quote an anecdote told by Einstein about our reaction when a crisis occurs: a crisis is always an opportunity to reconsider the basic structures of a system and to rebound to better survive another challenge. He said:

Let’s not pretend that things will change if we keep doing the same things.

A crisis can be a real blessing to any person, to any nation.

For all crises bring progress.

Creativity is born from anguish.

Just like the day is born form the dark night.

It’s in crisis that inventive is born, as well as discoveries, and big strategies.

He who overcomes crisis, overcomes himself, without getting overcome.

He who blames his failure to a crisis neglects his own talent, and is more respectful to problems than to solutions.

Incompetence is the true crisis.

The greatest inconvenience of people and nations is the laziness with which they attempt to find the solutions to their problems.

There’s no challenge without a crisis.

Without challenges, life becomes a routine, a slow agony.

There’s no merits without crisis. It’s in the crisis where we can show the very best in us.

Without a crisis, any wind becomes a tender touch. To speak about a crisis is to promote it.

Not to speak about it is to exalt conformism. Let us work hard instead.

Let us stop, once and for all, the menacing crisis that represents the tragedy of not being willing to overcome it.

Albert Einstein, 1879–1955, published by Gene Bryan on 25 March 2009.

6.8.6. Role time and evolution mechanisms in survival

This second subject matter is related to the evolution of an organization and to the identification of the main recipient of the benefits coming from an adaptation. For instance, in a company, when a trouble is raised and is recovered after a lot of efforts, are the results profitable to the owner, the employees or society? When a human being is developing some skills and capabilities, does he take some advantage about such an improvement? Is it the DNA that creates the human being, which will benefit from a new advantage?

Here, we have to consider some evolution principles common in nature: they are based on the progressive creation, over time, of codes:

  • – quantum code (code of matter);
  • – genetic code (code of life);
  • – synaptic code (code of thought), etc.

We can imagine that nature is continuously improving and designing new codes: they are based on the previous ones quoted above; perhaps some people already exist somewhere else in the universe; we do not know. On the other hand, what we can say is that the evolution of our economy, the management of a company and the operations management in an organization cannot only be based on a few theories and mechanisms … in an ordinary or simplistic manner.

Being consistent with the graph of theories, modeled in Chapter 1 of this book, we could also introduce the following codes:

  • – physics code (code of energy, through entropy);
  • – networking code (code of complexity).

Presently, returning to the behaviors and consciousness of human beings, the new capabilities to be developed not only address the introduction of new technologies, but also essentially the mental capabilities. Here, we think about ethics: behaviors based on ethics are able to better control the behavior of the human species to ensure its survival and its future evolution. Within this context and associated constraints:

  • – time is a major component required for managing the antagonisms and ambivalences in nature (cooperation–competition, selfishness–altruism, etc.). They condition all the behaviors and search of equilibriums observed in nature; their importance and resulting effects vary over time. In terms of application, for instance, in our peer-to-peer networked systems we have introduced and developed decisions systems based on coopetition and comperation. But this is not enough since the survival aspect of the system is not highlighted; this is why these models have to be completed with ambivalent rules of mental behaviors:
    • - in fact, one consequence of the above remark is that the main factor which plays a role in the survival of a species is related to the “eusociality”: it is through the continuous implementation of such concepts, some speciation in the populations, and the overlap of generations, as explained before, that survival can be ensured.

6.9 Conclusions

In this chapter which is dedicated to mental concepts and mechanisms of human life, we could detail a few approaches at human being level, resilience oriented, to solve problems encountered in business, economy, our day-to-day life or our social living.

As we easily understand, these concepts are directly useful to better understand and handle the sustainability approaches that we have to redesign. Indeed, we can transpose these mechanisms and ways of doing in many different areas, and implement them in any company where they will play an important role in its evolution and choices of strategies, sustainability oriented. As a result, they have an impact on the underlying structures and systems architecture of the system, and they effectively impact the development of new decision-making processes.

Our intent is, in addition to biological considerations, we also have to consider the social environment of a human being, and the evolution of society.

The objective is just to understand how a human being will evolve in a new environment, and then implement and exploit our mental capacities to face new challenges in a sustainable world.

For instance, when discussing the management system used in a company to motivate people, one will tell you that human resources have first to be happy in their work. To have happiness, which sucks life, however requires a sharing of responsibility, lives and destinies.

To summarize, we can specify that society is permanently evolving. Just to consider the last decade, we can say the following:

  1. Society was primarily a society of duty. Everyone was concerned about fulfilling his tasks, doing his job as best as he could, to be responsible to the elders and to devote himself to his company or participate in social activities when he was at home.
  2. More recently, our society has become hedonistic. Hedonism leads to a new form of globalization. It must be built or redesigned based on new values, references and benchmarks. This is the current situation; sometimes, due to lack of vision, governments have not paid attention to the fact that new boundaries and values had to be set up in society. Also, ethics were not there to regulate the new society and this is why some deviances relevant to quality of life, leisure, or even laxity have spread and invaded the public and social life.
  3. What is next? If you try to look a little bit into the future, it is almost obvious that eudemonism is getting ready for the next step. It is related to a need for happiness, a feeling of fullness (the so-called “love” by the French philosopher Luc Ferry). Happiness can be considered as an end. It cannot be the sustainable privilege of a few people because the interactions in the global society are so numerous and strong that everything, any information, is well known, memorized, felt, evaluated and shared, by everyone, and finally … tagged in our mind, influenced by the new ways of social thinking and by the behaviors of our “neighbors”, in a global way, that is to say, in the broadest sense of the term. Under these conditions, the problem will be to complete our mental schemes and to integrate these concepts into the new management and decision systems. More specifically, it is necessary to include, right now, eudemonism in our future production systems (here, production is a generic term in its widest sense).

6.10. Consequences and action plan

In this area, related to eudemonism [BOS 04], mutations and genetic recombinations are not, however, the only ways in which new variants with unanticipated properties can arise. Likewise, the enhancement of various cognitive or emotional capacities, or the installment of entirely new capacities, could produce combinatorial effects that may not be fully predictable. Ordinary growth and maturation of an individual could lead to the development of a fitness-maximizing non-eudemonic character even where none is manifest at conception. Novel mimetic influences might also trigger non-eudemonic tendencies. So while it is plausible that an advanced lifeform could avoid random mutations (for instance, in its DNA source code), it is more dubious that it would be able to predict and avoid emergent effects of growth, enhancement, and learning in individuals or in interacting communities of developing agents:

  • – Efforts would be not to accept individuals with non-eudemonic fitness-maximizing preferences because these would then proliferate and eventually dominate. These individuals would somehow have to disappear from the population, and it is hard to see any practical and ethical way in which this could happen. Usually, in a company, the population is distributed according to a Gaussian curve. Distribution tails comprise either over-eudemonic agents on one side or greed agents on the other side. The objective in order to maintain the best cooperation consists of eliminating or reducing the tails. This can be achieved through management decision related to new job assignments, job content realignment, or even “firing”.
  • – In some specific cases, it might make good sense to try to reduce the frequency at which dangerous mutants are spawned – in cases where this can be done relatively inexpensively, in an ethically acceptable manner, and where clear and specific harms can be foreseen. For example, in the future, we might pass laws against building powerful artificial intelligences with goal systems that are hostile to human values. But we cannot rely on this strategy alone to prevent a dystopian evolutionary scenario if such a scenario should happen to be the default.
  • – The main care is related to the so-called “Worldwide Citizen” [DOM 11]. Indeed, it is a kind of “world’s conscience” and, in terms of governance, the role of super-democracies that are emerging: they progressively take charge and support the common assets and public good of very diversified populations: indeed the “Res Publica” that takes care of the public good never remains the privilege of a small elite. The reason is simple: because of globalization, the public good is no longer characteristic of the privileged few, but of the world itself. Everyone is working, living everywhere: you can take your breakfast in the morning in Paris, your lunch in Berlin and dinner at your hotel in Hong Kong. People are in full interaction with everybody in the world (we have the same brain) and understandable since the culture is becoming “compatible” (here, we do not use the term “uniform” or “homogeneous”) because of the existing way of communication and information exchange. Thus, a new global governance must be defined: a new form of “Res Publica” will emerge from that.

In this new world, the role of a nation, a CEO or even a manager in a human organization is that of a “facilitator”.

Furthermore, the power of a decision-maker is not a hierarchical power that is assigned because of his membership in an organization: it comes from his ability to argue a possible decision, to convince his team or the employees under his responsibility, in his business domain. Within this context, relevant to the emergence of a “World Citizen”, the role of a manager is much more difficult and risky: we will be asked to decide in a more cooperative and collaborative mode; this leads to a different selection and promotion mode with regard to tomorrow’s leaders.

Practically, what will happen? How could we adapt these concepts? By avoiding going back to the “Pax Romana” world, a simple answer is to reason locally (from a nation’s point of view). We can say that in France, the geographical notion of a “département” was created to supersede the “city”; this was extended to the wider notion of a “region”. Now, the global notion of “Europe” as a supranational organization is set up. Before changing once more the scale of the management domain, and thinking about a global worldwide governance, it should be noted that, in nature, the changes are progressive and evolving in the same way.

Before considering a “comprehensive and integrated world” (in conformance with the global vision of a “smart planet”), it is first necessary to carry out a gradual and continuous assimilation of these supranational organizations.

In Europe, for instance, all the countries are geographically, economically and culturally close. Around the world, interactions are particularly strong in the field of economy, transportation, tourism, etc. Within this interconnected world, everyone is “unique, similar and universal”. It is a kind of integration and assimilation (which is a much stronger concept): this evolution is an essential step in the globalization in progress. Thus, a new order can only arise through this “programmable network” (in terms of complex systems theory).

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