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In: Proc. of the 11th Intl. Conf. on Computing in Civil and Building Engineering (ICCCBE-XI) ed. Hugues Rivard, Montreal, Canada, Seite 1-12, ACSE (CD-ROM), 2006 Currently, the conceptual design phase is not adequately supported by any CAD tool. Neither the support while elaborating conceptual sketches, nor the automatic proof of correctness with respect to effective restrictions is currently provided by any commercial tool. To enable domain experts to store the common as well as their personal domain knowledge, we develop a visual language for knowledge formalization. In this paper, a major extension to the already existing concepts is introduced. The possibility to define rule dependencies extends the expressiveness of the knowledge definition language and contributes to the usability of our approach.
In: Proceedings of the 39th Annual Hawaii International Conference on System Sciences, 2006. HICSS '06 http://dx.doi.org/10.1109/HICSS.2006.200 The conceptual design phase at the beginning of the building construction process is not adequately supported by any CAD-tool. Conceptual design support needs regarding two aspects: first, the architect must be able to develop conceptual sketches that provide abstraction from constructive details. Second, conceptually relevant knowledge should be available to check these conceptual sketches. The paper deals with knowledge to formalize for conceptual design. To enable domain experts formalizing knowledge, a graph-based specification is presented that allows the development of a domain ontology and design rules specific for one class of buildings at runtime. The provided tool support illustrates the introduced concepts and demonstrates the consistency analysis between knowledge and conceptual design.
Mit freundlicher Genehmigung der Autoren (Stand 02.2006) Inhaltsverzeichnis: 0 Vorwort 1 Warum brauchen wir MeMoPad? Begründungslinien. 1.1 Was fordern Studierende? 1.2 Welche Vorteile ergeben sich für die Fakultät? 1.3 Zusammenfassung 2 MeMoPad – Das Mentorenprogramm an der Universität Paderborn 2.1 Qualitätsmerkmale eines Mentorenprogramms 2.2 Rolle und Aufgaben von Mentoren 2.3 Didaktische Implikationen 3 Das Rahmenkonzept – Betreuungsgebiete (BG) im Überblick 4 Organisatorisches 5 Die Umsetzung – Betreuungsgebiete im Detail 5.1 BG0: "Was bringt mir MeMoPad?" Materialien 5.2 BG1: "Leben an der Hochschule: Was bedeutet ‚studieren’?" 5.2.1 Didaktische Hinweise 5.2.2 Möglicher Ablauf Materialien 5.3 BG2: "Was bedeutet ‚lernen’ in der Hochschule?" 5.3.1 Didaktische Hinweise 5.3.2 Möglicher Ablauf Materialien 5.4 BG3: "Warum und wie (ge)braucht man wissenschaftliche Standards?" 5.4.1 Didaktische Hinweise 5.4.2 Möglicher Ablauf Materialien 5.5 BG4: "Wie präsentiert man (sich) erfolgreich?" 5.5.1 Didaktische Hinweise 5.5.2 Möglicher Ablauf Materialien 5.6 BG5: "Wie kann ich mich persönlich weiterentwickeln?" 5.5.1 Didaktische Hinweise 5.5.2 Möglicher Ablauf Materialien
Para Reiss, a avaliação de cada um dos 16 motivos vitais é a chave para não só entender o comportamento humano, como também para poder prevê-lo. Tal previsão é também a meta de cada ciência. Quando se quer saber a reação das pessoas, precisa-se primeiro descobrir, o que as pessoas realmente querem – e, então prever, que elas satisfarão esses desejos e necessidades em suas ações. As chances, que o Perfil Reiss oferece, resultam entre outras também, que aqui é possível pela primeira vez uma individualização total. Cerca de 6 bilhões de perfis individuais podem ser apresentados com o Perfil Reiss. Na combinação correta da formação e utilização da tipologia de um lado e da individualidade da conclusão de outro lado, está a força positiva desse instrumento.
O Perfil Reiss apresenta no resultado uma visão da estrutura dos motivos e impulsos de uma pessoa. O ponto de saída para a análise do resultado é o conhecimento de que os motivos vitais (= valores e metas de sobrevivência) formam a moldura, na qual as competências e capacidades que uma pessoa possui possam se desabrochar de forma ideal. A partir desse princípio, não existe no Perfil Reiss nenhum resultado que se possa classificar como correto ou falso, nem como bom ou mau. Uma comparação entre o resultado do Perfil Reiss e o conteúdo de uma atividade apresentada ou ambicionada dá informação sobre até que ponto a capacidade de rendimento de uma pessoa nessa posição pode vir ou virá a se desenvolver por um longo tempo.
Hands-on-training in high technology areas is usually limited due to the high cost for lab infrastructure and equipment. One specific example is the field of MEMS, where investment and upkeep of clean rooms with microtechnology equipment is either financed by production or R&D projects greatly reducing the availability for education purposes. For efficient hands-on-courses a MEMS training foundry, currently used jointly by six higher education institutions, was established at FH Kaiserslautern. In a typical one week course, students manufacture a micromachined pressure sensor including all lithography, thin film and packaging steps. This compact and yet complete program is only possible because participants learn to use the different complex machines in advance via a Virtual Training Lab (VTL). In this paper we present the concept of the MEMS training foundry and the VTL preparation together with results from a scientific evaluation of the VTL over the last three years.