Modeling on Conjugated Porous Polymers

This research activity will be focused on the creation of novel tools and services through a High Energy Performance approach. The main goal is to develop an AI service for optimal control of energy considering behind the meter resources (management of energy sources at user level), with local (building or district) overall efficiency.

Faced with the current global challenges of sustainable development and the mitigation of climate change, there is an urgent need for a transition from the currently dominant linear economy towards a circular economy (CE). here exists a lack of consensus regarding what constitutes a “circular city”, and also the need to determine yet further the rationales and the ways forward how to transform cities towards circular models. With the aim of helping to meet this need, our research will precisely explore these issues by conducting research at three different but interconnected areas: 1. Field Research. The project involves the need to gather new data from relevant public urban institutions and corporate stakeholders by means of a field survey, meetings and interviews. 2. Modelling and Analysis. Upon gathering the data from the field research, our team of researchers will conduct a comprehensive analysis and diagnosis of the inputs. 3. Guidelines and Decision Support. Findings of the field research, modelling and analysis are brought to the scrutiny of the representatives of public and private organizations.

The research proposed line aims to enhance the flight control systems onboard of unmanned aerial systems (drones) to develop new intelligent technological capabilities that meet with the most ambitious requirements reagarding smaart cities (energy saving and efficiency in specific societal services). Thanks to the innovative technique CACM-RL developed by SOTICOL RS, drones can perform optimal missions considering optimal criteria, such as, energy minimum consumption or minimum time. In addition, by using this technique, drones can perform special missions in a swarm configuration, if ncessary.

Metal organic frameworks (MOFs) are hybrid crystalline materials, exhibiting high specific surface areas, controllable pore sizes and surface chemistry. These properties have made MOFs attractive for a wide range of applications including gas separation, gas storage and catalysis. They are one of the most promising candidates for CO2 capture due to their adsorption selectivity towards CO2.