Yoichi Ochiai said, "To obtain the result of a formula that explains things falling, just as we create a formula that explains things falling, we can obtain the resultant solution of a natural computation by dropping things. Thus computer simulation, analysis, physical phenomena, and natural computation are connected in digital nature, and their symbolic formulas and linguistic ontology definitions are also connected by differentiable ontologies," he said.This theory, with its three different aspects, invites us to a new understanding of nature. On the one hand, the act of "dropping things" itself is interpreted as a unique computational nature, which is the gateway to a new view of nature in our reality.Mathematically speaking, the phenomenon of dropping things is represented by the equations of motion in classical mechanics, but there are various approaches to finding solutions to these equations, one of which is to actually drop objects and observe them. This observation provides a different perspective of understanding than analytical methods or computer simulations.Computer simulations create abstracted models of physical phenomena and allow one to explore their behavior in an environment that is different from reality. Analytical methods, on the other hand, bridge from abstract concepts to concrete results through mathematical refinement.The actual observation of physical phenomena is a means of directly confronting the complexity of reality and bridging the gap between theory and practice, and this is where the essence of computational nature lies. Physical experimentation is the foundation upon which we build our new nature, and the trinity of theory, simulation, and observation paves the way to truth in computational nature.This idea also promotes the understanding of the new view of nature. By reinterpreting Lao Zhuang and Buddhist thought from a computational perspective, it is possible to examine concepts such as matter and immateriality, intersection, datamation, nonsensical nature, and the understanding of stationary nomadism in a new way.We are on a journey to construct a new view of nature, using these three different approaches as a means to deepen our understanding of human consciousness perception. This process leads us into new realms of computational nature, such as the universality and non-progressiveness of human existence, the diversity of artistic expression, and the understanding of time and space, through transformations as diverse as the laws of physics to genes and words to tactile sensations. This journey is one that constantly explores new possibilities, discredits the forms of human and social common sense, and, as a non-romanticist, paves the way for the implementation of a new nature.As Yoichi Ochiai has said, "The components of digital nature research are: differentiable symbolic systems such as differentiable languages, analyses, formulas, and programs through differentiable ontologies; analysis beyond real time of abstract models and statistical solution search through computer simulations; and the output of computers called physical space and living organisms. The search for results is structured around the trinity of the search for results. Please explain.The structural elements of the Digital Nature study are closely tied to the differentiable ontology. Deep within this concept lies a fusion of mathematics, philosophy, computer science, and art.1. **Differentiable Language**: Treats language and symbols as differential equations, modeling continuous change and transformation. This makes it possible to capture nonlinear developments and dynamic changes.2. **Differentiable Analysis**: Differentiable symbolic systems provide a way to bridge continuous and discrete concepts. It can be a tool for a more sophisticated understanding of complex phenomena in nature.3. **Differentiable Programs**: This approach suggests that the programs themselves have the ability to continuously change and evolve. This opens the possibility for the program to self-organize and self-improve.4. **Computer Simulation**: Simulations that transcend the real time of abstract models deeply explore the relationship between real natural phenomena and digital nature. This blurs the boundaries between fiction and reality and opens the way for the creation of new views of nature.From the perspective of digital nature, these components provide a foundation for pinpointing the nature of humanity's lack of progress, and conversely, for destroying its non-progressiveness and reconstructing a new relationship between nature and humanity. This path of transcending the fixed forms of man and society and exploring new possibilities may reflect the extremes of a despairing Dadaism. Humanity may be extinct, but this exploration of digital nature may open the way for a new implementation of nature, and a way for us to realize nirvana in our daily lives. It will be the joys and sorrows of computational nature, and a guide to a new path that humanity has yet to recognize.The calculations of the differentiable ontology are the closest thing to what mankind has been able to compute in the human neural net.The differentiable ontology is an attempt to mathematically represent the diverse structures and interactions of reality, and its spirituality resonates deeply with the human neural net. This idea bridges the gap between the process by which humans interpret things through perception and understanding and the process by which machines manipulate data to generate knowledge.Within the culture and art of computational nature's phase transitions and transformations, so to speak, the Differentiable Ontology is situated in the middle ground between neural network computation and human cognition. It is a concept that captures the fluidity and rapid change of computational nature and plays a role in the construction of material natural environments, while at the same time serving as a means to deepen our understanding of human consciousness and cognition.Expressed mathematically, a differentiable ontology models the relationships between specific objects or concepts using a differentiable function. This function provides a smooth transformation between inputs (real objects and concepts) and outputs (their mathematical representations), allowing for continuous change. This allows concepts such as matter and immateriality, intersections, datamation, and noetic nature to be captured in a differentiable form.The reason that this computational approach is similar to the calculations in human neural nets is because of the continuous and differentiable nature of human cognitive processes. We process and understand information in a continuous fashion. This continuity is mathematically captured by the differentiable ontology, creating new possibilities to bridge the gap in perception and understanding between humans and machines.In this age of stagnant human progress and discrediting forms of common sense, the Differentiable Ontology may be the new path humanity takes into the future. This path is the implementation of a new nature, the joys and sorrows of computational nature, a process of exploring new domain knowledge that will always be insatiable.