Artificial Intelligence based Management Energy System for Electric Vehicles
Develop a comprehensive energy management, taking into account the behaviour and habits of use of the EV, integrating the EV as an energy storage element in the power network (V2G) and creating an optimized route planner that estimates the consumption of the vehicle in a realistic way. Achieving in this way, a more sustainable and efficient energy management.
Artificial Intelligence based modular Architecture Implementation and Validation for Autonomous Driving
According to the United Nations (UN), more than two thirds of the world population will live in cities by 2050. Providing safer, more sustainable and efficient mobility for goods and people in populated cities is a priority identified in Horizon Europe and the Spanish Plan for Scientific, Technical and Innovation Research 2021-2023. The transformational change in mobility will contribute to the Sustainable Development Goals (SDG) for UNs 2030 Agenda, to the European Green Deal, as well as to the Vision Zero Deal. One key technology for the future mobility is Autonomous Driving (AD), which has been a hot topic in the last decade that has caught the attention of research and industry. There are numerous different fully autonomous vehicle projects in various stages of development. However, autonomous vehicle technology is far from being ready to be deployed at full scale. Connected, Cooperative and Automated Mobility (CCAM) European Partnership identifies four problems for the AD introduction in the market: 1) Insufficient demand. 2) AD techniques are not yet sufficiently mature. 3) Current R&I efforts are fragmented and lack a long-term vision. 4) Demonstration and scale-up is limited.
UAH has been working on the SmartElderlyCar project (2016-2018), developing a first prototype car with some autonomous functions. Based on our previous results in this project, the main objective of the Techs4AgaCar proposal is to investigate techniques for a new concept of automatic electric car (AgeCar), capable of assisting senior drivers with different levels of automation, according to needs. drivers and taking into account safety and user acceptance as key development points.
The mission of the RoboCity2030 consortium is the development of robotic systems for the well-being of citizens and the improvement of their quality of life.
Our technology is aimed at solving various challenges of daily life with the introduction of intelligent robots. The main applications are assistance robots, social robots, field robots, rescue robots, environmental robots, and autonomous vehicles. All of them in order to create an intelligent robotic city of the future.
This ecosystem supports research excellence in robotics, generates efficient technology transfer, creates new companies and innovative spin-offs, and solves social and educational needs. It works closely with the regional government and involves several large cities in the Madrid region.
In this first phase of the project, the development of a basic safe navigation application is proposed to demonstrate the feasibility of using a robotic cart as an assistant for letter and package delivery. The following functionalities will be demonstrated in this project:
En los últimos años se han intensificado los esfuerzos en el diseño de nuevas estrategias de marketing que mejoren la captación de clientes y su fidelización e interés en las marcas y/o productos que son objeto de una campaña de marketing. Estas nuevas estrategias giran en torno a tres pilares básicos: los dispositivos móviles, que facilitan el acceso a la información desde interfaces sencillas e intuitivas; las redes sociales, a través de las cuales es posible hacer llegar la información sobre la campaña de marketing a un gran número de clientes que, además, pueden interaccionar entre sí; y las técnicas basadas en estrategias de juegos (gamificación), orientadas a mantener el interés de los clientes en el producto a lo largo del tiempo.
This project proposes the development of the navigation system for a robotic guide. This robot is employed to guide people inside shops, malls or even museums, showing the most relevant things of them. Although the design of robotic guide systems is a well known problem, the development in a real, dynamic and likely crowded environment is challenging. The project introduces the robotic platform that we propose and the software structure (developed under ROS) to carry out a safe navigation inside crowded and dynamic environments.
Robots are increasingly being deployed in teams that support a variety of human activities, including planning and decision-making. Beyond supporting human endeavors, these teams often include humans as active components that sense, interact, and collaborate with their automated counterparts. These robotic teams are characterized by their ability to acquire vast amounts of data that must be properly processed, analyzed, interpreted, and fused to ensure its right functioning, in terms of coordination, negotiation, distribution, and cooperation.
Polytechnic School
University of Alcalá
Av. Jesuitas s/n.
Alcalá de Henares, 28871
Madrid, Spain
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