In this paper, we propose a novel approach to establish a connection between linguistic objects and classes in Large Language Model Machines (LLMMs) such as GPT3.5 and GPT4, and their counterparts in high level programming languages like Python. Our goal is to promote the development of Digital Nature: a worldview where digital and physical realities are seamlessly intertwined and can be easily manipulated by computational means. To achieve this, we exploit the inherent abstraction capabilities of LLMMs to build a bridge between human perception of the real world and the computational processes that mimic it. This approach enables ambiguous class definitions and interactions between objects to be realized in programming and ubiquitous computing scenarios. By doing so, we aim to facilitate seamless interaction between Turing Machine objects and Linguistic Objects, paving the way for universally accessible object oriented descriptions. We demonstrate a method for automatically transforming real world objects and their corresponding simulations into language simulable worlds using LLMMs, thus advancing the digital twin concept. This process can then be extended to high level programming languages, making the implementation of these simulations more accessible and practical. In summary, our research introduces a groundbreaking approach to connect linguistic objects in LLMMs with high level programming languages, allowing for the efficient implementation of real world simulations. This ultimately contributes to the realization of Digital Nature, where digital and physical worlds are interconnected, and objects and simulations can be effortlessly manipulated through computational means.
翻译:在本文中,我们提出了一种新颖的方法,以建立自然语言对象和大型语言模型机器(LLMM)中的类(例如 GPT3.5 和 GPT4)以及它们在高级编程语言(如 Python)中的对应关系之间的联系。我们的目标是促进数字自然界的发展:数字和物理世界无缝地融合在一起,通过计算手段可以轻松操纵。为了实现这一点,我们利用 LLMM 的内在抽象能力,建立了人类对真实世界和模仿真实世界的计算过程之间的桥梁。这种方法使得在编程和普适计算方案中实现模糊的类定义和对象之间的交互成为可能。通过这样做,我们的目标是促进图灵机对象和语言对象之间的无缝互动,为实现通用的面向对象描述铺平道路。我们演示了一种将真实世界对象及其相应的仿真变换为可用 LLMM 模拟的语言世界的自动化方法,从而推进数字孪生概念的发展。然后,这个过程可以扩展到高级编程语言,使得这些仿真的实现更容易和实际。总之,我们的研究引入了一种开创性的方法,将LLMM中的语言对象与高级编程语言连接起来,从而实现了真实世界仿真的高效实现。这最终有助于实现数字自然界,其中数字和物理世界相互连接,并且可以轻松地通过计算手段操纵对象和仿真。