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Thinking Aloud About Linguistics
The Thinking Aloud About Linguistics (TAAL) project aims to help university instructors who wish to better understand where and why their students struggle with course content. While we as instructors often know which questions or topics students frequently misunderstand, we do not always know what makes that particular content challenging for our learners. One aspect of the necessary knowledge for teaching (Ball et al., 2008) is knowing where students struggle and how to adjust our instruction accordingly. The TAAL project proposes to develop metacognitive classroom activities in English linguistics that use recent technological innovation to collect and summarize students thinking about targeted grammar concepts. These summaries then provide instructors data to reteach and reassess course content. Metacognitive activities have long been shown to benefit students (Perry et al., 2019), as they allow learners to process and articulate their thinking. While this project focuses on linguistics and grammar, TAAL is meant to serve as a pilot for both our degree program and beyond. The goal is that the teaching and analyzing processes developed in this project can easily be transferred to other teaching contexts, in the hope that university educators across fields who seek to better understand how to support students in their content area can use these tools in their instruction.
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Digitales Praxismodul – Facetten der Berufsbilder
Im digitalen Praxismodul „Facetten der Berufsbilder“ erhalten ISTAB-Masterstudierende (Internationaler Studiengang Technische und Angewandte Biologie) praxisnahe Einblicke in biologische Berufsfelder durch Alumni- und Expert:innenvorträge aus Forschung, Industrie und Diagnostik. Ziel ist es, Übergänge zu Projekt- und Masterarbeiten zu erleichtern und berufsrelevante Netzwerke aufzubauen.
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Design and fabrication of wooden grid shells using small-diameter timber
As the construction industry shifts toward sustainability, timber has emerged as a primary renewable material. However, current wood value chains are often inefficient; a significant portion of harvested timber—particularly small-diameter roundwood—is relegated to low-value uses like thermal energy or fiber products. Despite being underutilized, these thinnings possess a continuous fiber structure that offers higher and more consistent bending strength than sawn beams. To explore this material’s structural potential, a 6×6 m wooden grid shell was developed. This case study combines the geometric efficiency of Hyperbolic Paraboloid (Hypar) structures with the inherent strength of small-diameter logs. Realized during a one-week design-build workshop, the project utilized locally sourced logs through a digital-material workflow consisting of three main phases: 1. Debarking: Careful processing of raw logs. 2. On-site Assembly: Rapid construction of the shell framework. 3. AR Integration: Use of Augmented Reality (AR) to ensure high accuracy and robustness when working with irregular geometries. The findings demonstrate a scalable approach to valorizing low-grade timber, reducing waste, and optimizing value chains. By blending contemporary digital tools with insights from historical construction, this research offers a viable model for sustainable, low-impact timber architecture that transforms irregular roundwood into high-performance structural systems.
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