Robotic Art in Creation and Development of Innovative Shapes and Programs for Automated Driven Cars with Artificial Intelligence

Abstract

Nature is evolving continuously. Humanity seems like is always searching for something new and in a cultural (ex)change. Technology is the preferred instrument for (self-)development processes in human-nature relationship and interactions. In the present era many people (children and grown-ups) are interested in playing and working with smart phones and other technological products which are performing day by day more complex tasks and diverse interactions. As the level of intelligence does increase when it comes to technological products, higher the interest of the customers will be. Today, even computer browsers are learning the searching behaviours of their users. Programming and adjusting the robots and automatic systems to interact in quite complex fashion with the surrounding environment in other to perform different tasks and to interact with intelligent beings is still quite a difficult challenge due to the great amount of data that needs to be considered and processed. In the present paper the authors show a small part of the designing process for a robotic vehicle in virtual reality environment by using Unity 5 application and other engineering tools. Vehicle considered for digitisation is Chevrolet Camaro and the performed tasks should be automated driving in testing scenario. Self-driven cars are a challenging project for all automotive and robotics engineers nowadays. There is a strong competition between the automotive and robotic technicians to develop and test the first autonomous or self-driving vehicle. In the present case the authors bring to the public attention their interdisciplinary effort to research and development of an innovative vehicle, with the purpose of improving road safety and comfort. It is expected that automated vehicles to provide superior and complex experiences during road travel. Art creation and scientific research are furthermore supported by this field of human activity.

Application of Artificial Intelligence Combined with Three-Dimensional Digital Technology in the Design of Complex Works of Art

“…The digital media industry has had to navigate some rough waters despite the enormous progress made possible by the advent of big data. Due to a lack of resources, backwardness, and digital media support, this has been the case [13]. Crossteaching tactics like this one can be highly effective when working with enormous volumes of data.…”

Developing and Researching a Robotic Arm for Public Service and Industry to Highlight and Mitigate Its Inherent Technical Vulnerabilities

“…The static platform (1) is the main support for the main arm, which is the TTLinker board (2), and wireless positioning sensors (3) are controlled by Feetech SCS 15 servomotors (4) to command the displacement of the detection sensor (5). An alternative to a static robotic arm may be developed with a mobile platform (6), with an ESP 32 microcontroller (8) (placed in a safety case), and a Lipo accumulator (9). In this case, a programming and remote-control station ( 7) is also provided.…”

“…When introduced to robotics [1] and automation [2], some individuals are convinced that these kinds of applications are destined only for the industry field or just for technological research and development [3]. Anyway, the purpose and objective of robotics and automation [4,5] consists in assisting human activities [6,7] both working in the industry and in performing daily tasks at home, the office, or in public areas [8,9]. To merge the limits of the common knowledge and the actual reality of robotics, an internet connection must be introduced and used [10].…”

Design and Development of a Low-Cost Automated All-Terrain Intelligent Robotic Vehicle for Detection to Study Its Faults and Vulnerabilities from SWOT Perspective

“…Hazardous environments involve the usage of robotic applications for the detection of combat-mines, explosives, and dangerous materials to save lives and to protect the health of civilians and personnel engaged in decontamination. Applied solutions concerning robotic systems for quasi-autonomous inspections [2], dangerous material detection/measurement [3], harshness assessment [4], personal safety [5], automated controlled vehicles [6], and Strengths, Weaknesses, Opportunities, and Threats (SWOT) analysis of the development processes [7] have been partially approached, and applied in laboratory research. They also have been field-tested in given conditions to some extent [8,9].…”