COMPLAS 2021 is the 16th conference of the COMPLAS Series.
The COMPLAS conferences started in 1987 and since then have become established events in the field of computational plasticity and related topics. The first fifteen conferences in the COMPLAS series were all held in the city of Barcelona (Spain) and were very successful from the scientific, engineering and social points of view. We intend to make the 16th edition of the conferenceanother successful edition of the COMPLAS meetings.
The objectives of COMPLAS 2021 are to address both the theoretical bases for the solution of nonlinear solid mechanics problems, involving plasticity and other material nonlinearities, and the numerical algorithms necessary for efficient and robust computer implementation. COMPLAS 2021 aims to act as a forum for practitioners in the nonlinear structural mechanics field to discuss recent advances and identify future research directions.
Scope
COMPLAS 2021 is the 16th conference of the COMPLAS Series.
This document presents the exploitation strategy jointly designed by the consortium as well as individual exploitation intentions of each partner organisation. It includes the actions to be carried out beyond the project lifetime to ensure that prodPhD outcomes are as widely reused as possible, including improvement of the project results, pre-commercialisation action and future exploitation ideas and intentions.
Abstract This document presents the exploitation strategy jointly designed by the consortium as well as individual exploitation intentions of each partner organisation. It includes [...]
This document presents the exploitation strategy jointly designed by the consortium as well as individual exploitation intentions of each partner organisation. It includes the actions to be carried out beyond the project lifetime to ensure that prodPhD outcomes are as widely reused as possible, including improvement of the project results, pre-commercialisation action and future exploitation ideas and intentions.
Abstract This document presents the exploitation strategy jointly designed by the consortium as well as individual exploitation intentions of each partner organisation. It includes [...]
Deliverable D6.3, ‘Report on monitoring the project developments’, aims to monitor the mid-term progress of the prodPhD project. This deliverable monitors the Key Performance Indicators (KPIs) of the actions in each work package of the project and provides an overall assessment of the results of each pilot action. KPI monitoring was based on the descriptive and evaluative operationalization of the KPIs in D6.1 and the structure developed in D6.2. The KPIs corresponding to each work package were monitored by the leader of each work package in line with their operationalization in D6.1. This end of the project monitoring of the progress of the prodPhD project shows that most of the implemented activities met their targets
Abstract Deliverable D6.3, ‘Report on monitoring the project developments’, aims to monitor the mid-term progress of the prodPhD project. This deliverable monitors the [...]
Deliverable D5.3, ‘Report on the development results of the pilot actions,’ aims to monitor the pilot actions carried on by the partners to test the entrepreneurship courses proposed during the project. The pilots consisted on the collaborative development of entrepreneurship projects, using the ‘learning by doing’ methodology and materials developed in WP3, and were implemented by using the customized social network platform and collaborative work tools developed in WP4. The evaluation of the pilot actions was carried out using surveys directed towards the students of the courses, and technical staff. As two pilot actions were organized, two surveys were distributed: one to the students of the first demonstration action (July 2022) and one to the students of the second action (January 2023). In the case of technical staff one survey was distributed at the end of the second pilot. The results show that the course improved between the first and the second pilot. However, there are still some issues to address. Some students find it difficult to compaginated the course with their PhD duties. The partners tested the possibility of designing shorter seminars that might be easier for the students to fit in their schedules. As students’ satisfaction with the seminars was high, this might be a possibility for future courses at the PhD level
Abstract Deliverable D5.3, ‘Report on the development results of the pilot actions,’ aims to monitor the pilot actions carried on by the partners to test the entrepreneurship [...]
This document presents the actions taken under Task 5.2 “Selection of students for the demonstration actions”, to launch the call for candidates to participate in the ProdPhD pilot action and prepare the ground for their selection. This call for candidates was open to all the fields of studies of the WEGEMT associates and other collaborating universities (see Table 1) and reached an estimated number of 500 PhD candidates from 29 universities at 16 European countries. The development of the pertinent actions commenced in the end of 2021 and was completed in M19 (June 2022), where communication via e-mails, video calls, phone calls and (limited, due to covid restrictions) physical visits was utilized.
Abstract This document presents the actions taken under Task 5.2 “Selection of students for the demonstration actions”, to launch the call for candidates to participate [...]
The current report aims to provide all the information necessary to access to the prodPhD Online Training Environment. This document includes a description and the way to use the main platform capabilities for collaborative work, including social network solutions.
Abstract The current report aims to provide all the information necessary to access to the prodPhD Online Training Environment. This document includes a description and the way to [...]
The purpose of this document is to provide the information to access to the framework of the prodPhD Online Training Environment, which has been developed to meet the specific requirements of the project.
Abstract The purpose of this document is to provide the information to access to the framework of the prodPhD Online Training Environment, which has been developed to meet the specific [...]
This document presents the trained material IPAG has adapted from its existing material following the needs and expectations collected and analysed by WP1 and the specifications of WP3’s task T3.1. The overall goal of the adapted training material is to provide PhD students with the necessary and sufficient knowledge and skills to reflect on entrepreneurship and possible start and run their business, be they aspiring or confirming entrepreneurs. The different courses are therefore designed to allow them to tackle each of the business model template widely used to design businesses in terms of offering, customers, infrastructure and finances. That represent ten hard skills to be addressed. In addition, seven soft skills deemed as crucial for business success are proposed. All the materials will be proposed under PowerPoint format.
Abstract This document presents the trained material IPAG has adapted from its existing material following the needs and expectations collected and analysed by WP1 and the specifications [...]
V. Carvalho, N. Rodrigues, R. Rodrigues, M. Bañobre, R. Lima, S. Teixeira
eccomas2022.
Abstract
Organ-on-a-chip (OoC) platforms have revolutionized the drug development process by offering an effective alternative to animal models. These advanced microfluidic platforms mimic the organ functions at a microscale, and they can be produced at a large scale and at a lower price. Despite the variety of OoC models developed up to now, the combination of numerical simulations with experimental procedures has been of paramount importance in the development of more realistic and effective OoC devices. In addition, a better understanding of the physical phenomena happening in OoC can be obtained. In the present work, fluid flow numerical simulations were carried out in an OoC aiming to evaluate the influence of imposing different inlet velocities on the oxygen distribution along the device. This is of great importance to understand if the oxygen that reaches the cells is adequate for their culture. The results showed that for the geometry tested, with four organ models in parallel, by increasing the inlet velocity, the dissolved oxygen where cells are cultured also increases. This proves the importance of using numerical simulations for improving the performance of the experimental tests and optimizing the flow conditions.
Abstract Organ-on-a-chip (OoC) platforms have revolutionized the drug development process by offering an effective alternative to animal models. These advanced microfluidic platforms [...]
The application of the Finite Element Method (FEM) has developed considerably in recent decades. While in the early days of the FEM only linear-elastic material models were available in commercial Finite Element (FE) programs, today non-linear and also damage-considering material models are offered. But even these are often not capable of correctly representing the complex material behaviour of modern composite materials. Therefore, FE programs often provide the users with the option of integrating their own material models into the simulation. These programs, often called "user subroutines" or "user materials", represent an intensively researched area in the simulation of material behaviour, which is reflected in the large number of publications on such developments (exemplarily see [1-14]). These material models often require a large amount of data values if they are introduced within the simulation model by finite elements [2]. Especially in the field of composites there is a need to use a separate "user material" for each constituent material. Since there is a mutual interaction between the components in real composites, it is obvious that this interaction must also be represented The 8th European Congress on Computational Methods in Applied Sciences and Engineering ECCOMAS Congress 2022 5 – 9 June 2022, Oslo, Norway PHILIP F. ROSE, LUKAS MÜNCH, MARKUS LINKE AND PETER MIDDENDORF 2 between the material models within a simulation in order to make accurate predictions about the material behaviour. To enable such an interaction between different material models in a simulation, a communication during runtime is required in which additionally needed data from the surrounding elements is exchanged between the user materials. In this paper, a method is presented to enable such information exchange during simulation runtime in the commercial FE software ABAQUS/CAE 2019 (Dassault Systèmes, Vélizy-Villacoublay, France) using external databases as well as structured global arrays and some built-in functions of the software. This allows the simultaneous application of several advanced user material models within one simulation and enable them to communicate during runtime, resulting in the possibility of making high accurate simulations of composite materials.
Abstract The application of the Finite Element Method (FEM) has developed considerably in recent decades. While in the early days of the FEM only linear-elastic material models were [...]