{"title":"在一个根本性变革的时代,知识的生产、共享和设计","authors":"E. Coatanéa","doi":"10.3233/JID200010","DOIUrl":null,"url":null,"abstract":"Knowledge is a central constituent of the societal infrastructure. Knowledge is produced, interchanged, represented, and used for different purposes. In societies, where tangible or intangible artifacts are essential elements of the interaction of humans with the environment, knowledge is a central piece of the reasoning and realization mechanisms of artifacts. In turn, those artifacts can become a source of knowledge production. It is not a human specificity to produce, share, use, or transmit knowledge. Several studies have demonstrated that species such as whales enjoy this capability too (Whitehead et al., 2021). This means that producing and sharing knowledge is associated with social interactions both for humans and whales’ groups. On the contrary, social interactions of extremely large groups and the capacity to interact and collaborate with distant, unknown fellows is probably a human specificity. This collaboration implies the sharing of knowledge in a format ensuring diffusion and interchange. But what is happening when a new phenomenon such as knowledge produced by machines can become a reality? Is this extended collaboration remaining human specificity? Professor Horvath with his paper titled “On Reasonable Inquiry and Analysis Domains of Sympérasmology\", clears the way by providing an interesting contribution to the theory of synthetic system knowledge (SSK). His contribution opens a new area of investigation permitted by complex systems and their capacity to produce knowledge and use it intelligently. For us humans, all those elements can be the source of apparent intractable complexity. When faced with the emergence of complex phenomena, a seductive vision of complexity as an emergent, autoorganizing phenomenon is prevalent in multiple communities and crosses multiple domains of sciences such as computing science or economy. Self-organization as such is an interesting line of research but considering that complexity and self-organization can take care of themselves, and without a deep understanding of the multiple interactions, complex control and adaptation is a detrimental approach and can be the source of negative impacts. It is dangerous to see self-organization as an assumed self-organizing property of complex systems. This is, for example, a commonly adopted perspective in the mainstream economic school of thought. Another example is the behaviour of the Internet that gives the illusion of robust self-organizing structures despite high uncertainty in the environment itself. The reality is that for those systems complexity is hidden and that sophisticated control and adaptation procedures of designed systems exist. Complexity can and should be designed. This can be supported by providing a leading role in the design process to the description of the environment of the system. This is an approach favoured by multiple","PeriodicalId":342559,"journal":{"name":"J. Integr. Des. Process. Sci.","volume":"26 1","pages":"0"},"PeriodicalIF":0.0000,"publicationDate":"2021-06-01","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":"{\"title\":\"Knowledge production, sharing, and design in an age of fundamental transformations\",\"authors\":\"E. Coatanéa\",\"doi\":\"10.3233/JID200010\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"Knowledge is a central constituent of the societal infrastructure. Knowledge is produced, interchanged, represented, and used for different purposes. In societies, where tangible or intangible artifacts are essential elements of the interaction of humans with the environment, knowledge is a central piece of the reasoning and realization mechanisms of artifacts. In turn, those artifacts can become a source of knowledge production. It is not a human specificity to produce, share, use, or transmit knowledge. Several studies have demonstrated that species such as whales enjoy this capability too (Whitehead et al., 2021). This means that producing and sharing knowledge is associated with social interactions both for humans and whales’ groups. On the contrary, social interactions of extremely large groups and the capacity to interact and collaborate with distant, unknown fellows is probably a human specificity. This collaboration implies the sharing of knowledge in a format ensuring diffusion and interchange. But what is happening when a new phenomenon such as knowledge produced by machines can become a reality? Is this extended collaboration remaining human specificity? Professor Horvath with his paper titled “On Reasonable Inquiry and Analysis Domains of Sympérasmology\\\", clears the way by providing an interesting contribution to the theory of synthetic system knowledge (SSK). His contribution opens a new area of investigation permitted by complex systems and their capacity to produce knowledge and use it intelligently. For us humans, all those elements can be the source of apparent intractable complexity. When faced with the emergence of complex phenomena, a seductive vision of complexity as an emergent, autoorganizing phenomenon is prevalent in multiple communities and crosses multiple domains of sciences such as computing science or economy. Self-organization as such is an interesting line of research but considering that complexity and self-organization can take care of themselves, and without a deep understanding of the multiple interactions, complex control and adaptation is a detrimental approach and can be the source of negative impacts. It is dangerous to see self-organization as an assumed self-organizing property of complex systems. This is, for example, a commonly adopted perspective in the mainstream economic school of thought. Another example is the behaviour of the Internet that gives the illusion of robust self-organizing structures despite high uncertainty in the environment itself. The reality is that for those systems complexity is hidden and that sophisticated control and adaptation procedures of designed systems exist. Complexity can and should be designed. This can be supported by providing a leading role in the design process to the description of the environment of the system. 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引用次数: 0
摘要
知识是社会基础设施的核心组成部分。知识是为了不同的目的而产生、交换、表现和使用的。在社会中,有形或无形的人工制品是人类与环境相互作用的基本要素,知识是人工制品推理和实现机制的核心部分。反过来,这些工件可以成为知识生产的来源。创造、分享、使用或传播知识并不是人类的特性。几项研究表明,鲸鱼等物种也具有这种能力(Whitehead et al., 2021)。这意味着生产和分享知识与人类和鲸鱼群体的社会互动有关。相反,超大群体的社会互动以及与遥远的、未知的同伴互动和合作的能力可能是人类的特征。这种合作意味着以一种确保传播和交流的形式分享知识。但是,当机器产生的知识等新现象成为现实时,会发生什么呢?这种扩展的合作是否保留了人类的特异性?Horvath教授的论文题为《论症候学的合理探究和分析领域》,通过对合成系统知识(SSK)理论的有趣贡献扫清了道路。他的贡献打开了一个新的研究领域,允许复杂的系统和他们的能力产生知识,并明智地使用它。对于我们人类来说,所有这些因素都可能是表面上难以处理的复杂性的来源。当面对复杂现象的出现时,一种诱人的观点认为复杂性是一种新兴的、自组织的现象,这种观点在多个社区和多个科学领域(如计算科学或经济学)中普遍存在。自组织本身是一个有趣的研究方向,但考虑到复杂性和自组织可以照顾自己,如果没有对多种相互作用的深刻理解,复杂的控制和适应是一种有害的方法,可能成为负面影响的来源。把自组织看作是复杂系统的一种假定的自组织性质是危险的。例如,这是主流经济学派普遍采用的观点。另一个例子是互联网的行为,尽管环境本身存在很大的不确定性,但它却给人一种强大的自组织结构的错觉。现实情况是,对于这些系统来说,复杂性是隐藏的,并且存在设计系统的复杂控制和自适应程序。复杂性可以而且应该被设计出来。这可以通过在系统环境描述的设计过程中提供一个主导角色来支持。这是一种多方青睐的方法
Knowledge production, sharing, and design in an age of fundamental transformations
Knowledge is a central constituent of the societal infrastructure. Knowledge is produced, interchanged, represented, and used for different purposes. In societies, where tangible or intangible artifacts are essential elements of the interaction of humans with the environment, knowledge is a central piece of the reasoning and realization mechanisms of artifacts. In turn, those artifacts can become a source of knowledge production. It is not a human specificity to produce, share, use, or transmit knowledge. Several studies have demonstrated that species such as whales enjoy this capability too (Whitehead et al., 2021). This means that producing and sharing knowledge is associated with social interactions both for humans and whales’ groups. On the contrary, social interactions of extremely large groups and the capacity to interact and collaborate with distant, unknown fellows is probably a human specificity. This collaboration implies the sharing of knowledge in a format ensuring diffusion and interchange. But what is happening when a new phenomenon such as knowledge produced by machines can become a reality? Is this extended collaboration remaining human specificity? Professor Horvath with his paper titled “On Reasonable Inquiry and Analysis Domains of Sympérasmology", clears the way by providing an interesting contribution to the theory of synthetic system knowledge (SSK). His contribution opens a new area of investigation permitted by complex systems and their capacity to produce knowledge and use it intelligently. For us humans, all those elements can be the source of apparent intractable complexity. When faced with the emergence of complex phenomena, a seductive vision of complexity as an emergent, autoorganizing phenomenon is prevalent in multiple communities and crosses multiple domains of sciences such as computing science or economy. Self-organization as such is an interesting line of research but considering that complexity and self-organization can take care of themselves, and without a deep understanding of the multiple interactions, complex control and adaptation is a detrimental approach and can be the source of negative impacts. It is dangerous to see self-organization as an assumed self-organizing property of complex systems. This is, for example, a commonly adopted perspective in the mainstream economic school of thought. Another example is the behaviour of the Internet that gives the illusion of robust self-organizing structures despite high uncertainty in the environment itself. The reality is that for those systems complexity is hidden and that sophisticated control and adaptation procedures of designed systems exist. Complexity can and should be designed. This can be supported by providing a leading role in the design process to the description of the environment of the system. This is an approach favoured by multiple